2005-09-30
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CVE-2005-3106
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Race condition in Linux 2.6, when threads are sharing memory mapping via CLONE_VM (such as linuxthreads and vfork), might allow local users to cause a denial of service (deadlock) by triggering a core dump while waiting for a thread that has just performed an exec.
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Ubuntu_linux, Debian_linux, Linux_kernel
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4.7
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|
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2018-01-04
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CVE-2017-5753
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Systems with microprocessors utilizing speculative execution and branch prediction may allow unauthorized disclosure of information to an attacker with local user access via a side-channel analysis.
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Cortex\-A12_firmware, Cortex\-A15_firmware, Cortex\-A17_firmware, Cortex\-A57_firmware, Cortex\-A72_firmware, Cortex\-A73_firmware, Cortex\-A75_firmware, Cortex\-A76_firmware, Cortex\-A77_firmware, Cortex\-A78_firmware, Cortex\-A78ae_firmware, Cortex\-A8_firmware, Cortex\-A9_firmware, Cortex\-R7_firmware, Cortex\-R8_firmware, Cortex\-X1_firmware, Neoverse_n1_firmware, Neoverse_n2_firmware, Ubuntu_linux, Debian_linux, Atom_c, Atom_e, Atom_x3, Atom_x5\-E3930, Atom_x5\-E3940, Atom_x7\-E3950, Atom_z, Celeron_j, Celeron_n, Core_i3, Core_i5, Core_i7, Core_m, Core_m3, Core_m5, Core_m7, Pentium_j, Pentium_n, Xeon, Xeon_bronze_3104, Xeon_bronze_3106, Xeon_e3, Xeon_e3_1105c_v2, Xeon_e3_1125c, Xeon_e3_1125c_v2, Xeon_e3_1220, Xeon_e3_12201, Xeon_e3_12201_v2, Xeon_e3_1220_v2, Xeon_e3_1220_v3, Xeon_e3_1220_v5, Xeon_e3_1220_v6, Xeon_e3_1220l_v3, Xeon_e3_1225, Xeon_e3_1225_v2, Xeon_e3_1225_v3, Xeon_e3_1225_v5, Xeon_e3_1225_v6, Xeon_e3_1226_v3, Xeon_e3_1230, Xeon_e3_1230_v2, Xeon_e3_1230_v3, Xeon_e3_1230_v5, Xeon_e3_1230_v6, Xeon_e3_1230l_v3, Xeon_e3_1231_v3, Xeon_e3_1235, Xeon_e3_1235l_v5, Xeon_e3_1240, Xeon_e3_1240_v2, Xeon_e3_1240_v3, Xeon_e3_1240_v5, Xeon_e3_1240_v6, Xeon_e3_1240l_v3, Xeon_e3_1240l_v5, Xeon_e3_1241_v3, Xeon_e3_1245, Xeon_e3_1245_v2, Xeon_e3_1245_v3, Xeon_e3_1245_v5, Xeon_e3_1245_v6, Xeon_e3_1246_v3, Xeon_e3_1258l_v4, Xeon_e3_1260l, Xeon_e3_1260l_v5, Xeon_e3_1265l_v2, Xeon_e3_1265l_v3, Xeon_e3_1265l_v4, Xeon_e3_1268l_v3, Xeon_e3_1268l_v5, Xeon_e3_1270, Xeon_e3_1270_v2, Xeon_e3_1270_v3, Xeon_e3_1270_v5, Xeon_e3_1270_v6, Xeon_e3_1271_v3, Xeon_e3_1275, Xeon_e3_1275_v2, Xeon_e3_1275_v3, Xeon_e3_1275_v5, Xeon_e3_1275_v6, Xeon_e3_1275l_v3, Xeon_e3_1276_v3, Xeon_e3_1278l_v4, Xeon_e3_1280, Xeon_e3_1280_v2, Xeon_e3_1280_v3, Xeon_e3_1280_v5, Xeon_e3_1280_v6, Xeon_e3_1281_v3, Xeon_e3_1285_v3, Xeon_e3_1285_v4, Xeon_e3_1285_v6, Xeon_e3_1285l_v3, Xeon_e3_1285l_v4, Xeon_e3_1286_v3, Xeon_e3_1286l_v3, Xeon_e3_1290, Xeon_e3_1290_v2, Xeon_e3_1501l_v6, Xeon_e3_1501m_v6, Xeon_e3_1505l_v5, Xeon_e3_1505l_v6, Xeon_e3_1505m_v5, Xeon_e5, Xeon_e5_1428l, Xeon_e5_1428l_v2, Xeon_e5_1428l_v3, Xeon_e5_1620, Xeon_e5_1620_v2, Xeon_e5_1620_v3, Xeon_e5_1620_v4, Xeon_e5_1630_v3, Xeon_e5_1630_v4, Xeon_e5_1650, Xeon_e5_1650_v2, Xeon_e5_1650_v3, Xeon_e5_1650_v4, Xeon_e5_1660, Xeon_e5_1660_v2, Xeon_e5_1660_v3, Xeon_e5_1660_v4, Xeon_e5_1680_v3, Xeon_e5_1680_v4, Xeon_e5_2403, Xeon_e5_2403_v2, Xeon_e5_2407, Xeon_e5_2407_v2, Xeon_e5_2408l_v3, Xeon_e5_2418l, Xeon_e5_2418l_v2, Xeon_e5_2418l_v3, Xeon_e5_2420, Xeon_e5_2420_v2, Xeon_e5_2428l, Xeon_e5_2428l_v2, Xeon_e5_2428l_v3, Xeon_e5_2430, Xeon_e5_2430_v2, Xeon_e5_2430l, Xeon_e5_2430l_v2, Xeon_e5_2438l_v3, Xeon_e5_2440, Xeon_e5_2440_v2, Xeon_e5_2448l, Xeon_e5_2448l_v2, Xeon_e5_2450, Xeon_e5_2450_v2, Xeon_e5_2450l, Xeon_e5_2450l_v2, Xeon_e5_2470, Xeon_e5_2470_v2, Xeon_e5_2603, Xeon_e5_2603_v2, Xeon_e5_2603_v3, Xeon_e5_2603_v4, Xeon_e5_2608l_v3, Xeon_e5_2608l_v4, Xeon_e5_2609, Xeon_e5_2609_v2, Xeon_e5_2609_v3, Xeon_e5_2609_v4, Xeon_e5_2618l_v2, Xeon_e5_2618l_v3, Xeon_e5_2618l_v4, Xeon_e5_2620, Xeon_e5_2620_v2, Xeon_e5_2620_v3, Xeon_e5_2620_v4, Xeon_e5_2623_v3, Xeon_e5_2623_v4, Xeon_e5_2628l_v2, Xeon_e5_2628l_v3, Xeon_e5_2628l_v4, Xeon_e5_2630, Xeon_e5_2630_v2, Xeon_e5_2630_v3, Xeon_e5_2630_v4, Xeon_e5_2630l, Xeon_e5_2630l_v2, Xeon_e5_2630l_v3, Xeon_e5_2630l_v4, Xeon_e5_2637, Xeon_e5_2637_v2, Xeon_e5_2637_v3, Xeon_e5_2637_v4, Xeon_e5_2640, Xeon_e5_2640_v2, Xeon_e5_2640_v3, Xeon_e5_2640_v4, Xeon_e5_2643, Xeon_e5_2643_v2, Xeon_e5_2643_v3, Xeon_e5_2643_v4, Xeon_e5_2648l, Xeon_e5_2648l_v2, Xeon_e5_2648l_v3, Xeon_e5_2648l_v4, Xeon_e5_2650, Xeon_e5_2650_v2, Xeon_e5_2650_v3, Xeon_e5_2650_v4, Xeon_e5_2650l, Xeon_e5_2650l_v2, Xeon_e5_2650l_v3, Xeon_e7, Xeon_e\-1105c, Xeon_gold, Xeon_phi, Xeon_platinum, Xeon_silver, Hci, Solidfire, Leap, Local_service_management_system, Solaris, Btc12_firmware, Btc14_firmware, Visunet_rm_shell, Bl2_bpc_1000_firmware, Bl2_bpc_2000_firmware, Bl2_bpc_7000_firmware, Bl2_ppc_1000_firmware, Bl2_ppc_2000_firmware, Bl2_ppc_7000_firmware, Bl_bpc_2000_firmware, Bl_bpc_2001_firmware, Bl_bpc_3000_firmware, Bl_bpc_3001_firmware, Bl_bpc_7000_firmware, Bl_bpc_7001_firmware, Bl_ppc12_1000_firmware, Bl_ppc15_1000_firmware, Bl_ppc15_3000_firmware, Bl_ppc15_7000_firmware, Bl_ppc17_1000_firmware, Bl_ppc17_3000_firmware, Bl_ppc17_7000_firmware, Bl_ppc_1000_firmware, Bl_ppc_7000_firmware, Bl_rackmount_2u_firmware, Bl_rackmount_4u_firmware, Dl_ppc15_1000_firmware, Dl_ppc15m_7000_firmware, Dl_ppc18\.5m_7000_firmware, Dl_ppc21\.5m_7000_firmware, El_ppc_1000\/m_firmware, El_ppc_1000\/wt_firmware, El_ppc_1000_firmware, Valueline_ipc_firmware, Vl2_bpc_1000_firmware, Vl2_bpc_2000_firmware, Vl2_bpc_3000_firmware, Vl2_bpc_7000_firmware, Vl2_bpc_9000_firmware, Vl2_ppc12_1000_firmware, Vl2_ppc7_1000_firmware, Vl2_ppc9_1000_firmware, Vl2_ppc_1000_firmware, Vl2_ppc_2000_firmware, Vl2_ppc_3000_firmware, Vl2_ppc_7000_firmware, Vl2_ppc_9000_firmware, Vl_bpc_1000_firmware, Vl_bpc_2000_firmware, Vl_bpc_3000_firmware, Vl_ipc_p7000_firmware, Vl_ppc_2000_firmware, Vl_ppc_3000_firmware, Simatic_itc1500_firmware, Simatic_itc1500_pro_firmware, Simatic_itc1900_firmware, Simatic_itc1900_pro_firmware, Simatic_itc2200_firmware, Simatic_itc2200_pro_firmware, Simatic_winac_rtx_\(F\)_2010_firmware, Suse_linux_enterprise_desktop, Suse_linux_enterprise_server, Suse_linux_enterprise_software_development_kit, Diskstation_manager, Router_manager, Skynas, Virtual_machine_manager, Vs360hd_firmware, Vs960hd_firmware, Esxi, Fusion, Workstation
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5.6
|
|
|
2017-10-04
|
CVE-2017-14491
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Heap-based buffer overflow in dnsmasq before 2.78 allows remote attackers to cause a denial of service (crash) or execute arbitrary code via a crafted DNS response.
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Eos, Arubaos, Ubuntu_linux, Debian_linux, Honor_v9_play_firmware, Geforce_experience, Linux_for_tegra, Leap, Enterprise_linux_desktop, Enterprise_linux_server, Enterprise_linux_workstation, Ruggedcom_rm1224_firmware, Scalance_m\-800_firmware, Scalance_s615_firmware, Scalance_w1750d_firmware, Linux_enterprise_debuginfo, Linux_enterprise_point_of_sale, Linux_enterprise_server, Diskstation_manager, Router_manager, Dnsmasq
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9.8
|
|
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2019-08-13
|
CVE-2019-9517
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Some HTTP/2 implementations are vulnerable to unconstrained interal data buffering, potentially leading to a denial of service. The attacker opens the HTTP/2 window so the peer can send without constraint; however, they leave the TCP window closed so the peer cannot actually write (many of) the bytes on the wire. The attacker then sends a stream of requests for a large response object. Depending on how the servers queue the responses, this can consume excess memory, CPU, or both.
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Http_server, Traffic_server, Swiftnio, Ubuntu_linux, Debian_linux, Fedora, Web_gateway, Clustered_data_ontap, Node\.js, Leap, Communications_element_manager, Graalvm, Instantis_enterprisetrack, Retail_xstore_point_of_service, Enterprise_linux, Jboss_core_services, Jboss_enterprise_application_platform, Openshift_service_mesh, Quay, Software_collections, Diskstation_manager, Skynas, Vs960hd_firmware
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7.5
|
|
|
2019-08-13
|
CVE-2019-9518
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Some HTTP/2 implementations are vulnerable to a flood of empty frames, potentially leading to a denial of service. The attacker sends a stream of frames with an empty payload and without the end-of-stream flag. These frames can be DATA, HEADERS, CONTINUATION and/or PUSH_PROMISE. The peer spends time processing each frame disproportionate to attack bandwidth. This can consume excess CPU.
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Traffic_server, Swiftnio, Ubuntu_linux, Debian_linux, Fedora, Web_gateway, Node\.js, Leap, Graalvm, Enterprise_linux, Jboss_core_services, Jboss_enterprise_application_platform, Openshift_service_mesh, Quay, Software_collections, Diskstation_manager, Skynas, Vs960hd_firmware
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7.5
|
|
|
2019-08-13
|
CVE-2019-9515
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Some HTTP/2 implementations are vulnerable to a settings flood, potentially leading to a denial of service. The attacker sends a stream of SETTINGS frames to the peer. Since the RFC requires that the peer reply with one acknowledgement per SETTINGS frame, an empty SETTINGS frame is almost equivalent in behavior to a ping. Depending on how efficiently this data is queued, this can consume excess CPU, memory, or both.
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Traffic_server, Swiftnio, Ubuntu_linux, Debian_linux, Big\-Ip_local_traffic_manager, Fedora, Web_gateway, Node\.js, Leap, Graalvm, Enterprise_linux, Jboss_core_services, Jboss_enterprise_application_platform, Openshift_container_platform, Openshift_service_mesh, Openstack, Quay, Single_sign\-On, Software_collections, Diskstation_manager, Skynas, Vs960hd_firmware
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7.5
|
|
|
2019-08-13
|
CVE-2019-9513
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Some HTTP/2 implementations are vulnerable to resource loops, potentially leading to a denial of service. The attacker creates multiple request streams and continually shuffles the priority of the streams in a way that causes substantial churn to the priority tree. This can consume excess CPU.
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Traffic_server, Swiftnio, Ubuntu_linux, Debian_linux, Nginx, Fedora, Web_gateway, Node\.js, Leap, Enterprise_communications_broker, Graalvm, Enterprise_linux, Jboss_core_services, Jboss_enterprise_application_platform, Openshift_service_mesh, Quay, Software_collections, Diskstation_manager, Skynas, Vs960hd_firmware
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7.5
|
|
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