Abstract: A percussive massage device includes a housing. The housing defines a handle portion and a corner where the handle portion meets another portion of the housing. The percussive massage device also includes a motor contained within the housing, a reciprocation shaft coupled to the motor and configured to reciprocate when the motor is active, and a heart rate sensor located at the corner.

Abstract: A massage head for a percussive therapy device includes a base. The base is configured to connect a massage attachment to a reciprocating shaft of a percussive therapy device. The massage head also includes an end portion that includes a heater. The massage head also includes a medial portion located between the base and the end portion. The medial portion is configured to resiliently bias the end portion away from the base.

Abstract: A percussive massage device includes a housing. The housing defines a handle portion and a corner where the handle portion meets another portion of the housing. The percussive massage device also includes a motor contained within the housing, a reciprocation shaft coupled to the motor and configured to reciprocate when the motor is active, and a heart rate sensor located at the corner.

Abstract: A massage head for a percussive therapy device includes a base. The base is configured to connect a massage attachment to a reciprocating shaft of a percussive therapy device. The massage head also includes an end portion that includes a heater. The massage head also includes a medial portion located between the base and the end portion. The medial portion is configured to resiliently bias the end portion away from the base.

Abstract: A percussive therapy device includes a housing, a motor, a reciprocation shaft coupled to the motor and configured to reciprocate when the motor is active, an infrared radiation emitter contained in the housing, and a fan. The housing includes a window including a surface. The fan is configured to direct air along an air flow path, and a portion of the air flow path extends along the surface of the window.

Abstract: Disclosed herein are system, method, and computer program product embodiments for implementing global rate limiting of an API cluster capable of dynamically implementing updates without a restart of any instantiation within the API cluster. A local service includes an envoy and a customer resource definition. When an update is received, the customer resource definition identifies changes to be made to a global rate limiting service and dynamically injects those changes into the global rate limiting service. The changes can be instance-specific, with multiple different versions stored for the various instantiations within the cluster. The envoy also extracts and converts header information from a received request into one or more descriptor keys. The global rate limiting service determine global rate limiting based on a set of rules applied to the descriptor keys.

Abstract: Disclosed are compounds of Formula (1), tautomers thereof, and pharmaceutically acceptable salts of the compounds or tautomers, wherein L, R1, R2, R3, R4 and R5 are defined in the specification. This disclosure also relates to materials and methods for preparing compounds of Formula (1), to pharmaceutical compositions which contain them, and to their use for treating diseases, disorders or conditions associated with MRGX2.

Abstract: Embodiments of the present disclosure may comprise a system for filling undercuts with an index-matching liquid on a wafer, the system comprising a plurality of edge couplers, each comprising an undercut and a waveguide. Embodiments may also comprise ribs that suspend the waveguide over the undercut. Embodiments may also comprise one or more main buckets and one or more monitor buckets. Embodiments may also comprise a duct that couples together the plurality of edge couplers, the one or more main buckets, and the one or more monitor buckets.

Abstract: A radiofrequency coil (1) for use in magnetic resonance to transmit or receive an oscillating magnetic field. The radiofrequency coil (1) comprises a plurality of conducting elements (2) connected together to form a continuous conducting path. Each conducting element (2) of the plurality of conducting elements are arranged in substantially parallel surfaces such that the area bounded by each conducting element (2) overlaps with at least 20% of the area bounded by another of the conducting elements (2) in another parallel surface.

Abstract: A heat sink clip comprises a connecting member (12), two pressing members (14) connecting to the connection member, each of the pressing members comprising a pressing portion (141) and two spring portions (142, 143) extending from opposite ends of the pressing portion, a first locking portion (144) depending from one of the spring portions of each pressing member, two operating members (16) each having spaced first and second pivot means, the second pivot means being below the first pivot means, the operating members respectively pivotably connected to the other one of the spring portions, and two second locking portions (18) respectively pivotably connected to the operating members. When the operating members are rotated downwardly, the first and second locking portions are raised, adapted for engaging with a retention frame and securing a heat sink to an electronic package.

Abstract: A clip (1) is used to attach a heat sink (2) onto a central processing unit (3). The clip includes a main body (10) and an operating body (20). The main body includes a central pressing portion (101), a pair of first and second spring arms (103, 102) extending from the pressing portion, and a first leg (104) depending from the first spring arm. Two pins (106) extend outwardly from opposite sides of a free end of the second spring arm. The operating body includes a handle (201), and a second leg (202) depending from the handle. The second leg defines an opening (212) bounded by two side walls (204). A slideway (205) is defined in an inner surface of each side wall, the slideway slidably receiving a corresponding pin therein. When the handle is pressed downwardly, the pins slide downwardly to be retained at bottoms (206) of the slideways.

Abstract: A heat sink clip comprises a connecting member (12), two pressing members (14) connecting to the connection member, each of the pressing members comprising a pressing portion (141) and two spring portions (142, 143) extending from opposite ends of the pressing portion, a first locking portion (144) depending from one of the spring portions of each pressing member, two operating members (16) each having spaced first and second pivot means, the second pivot means being below the first pivot means, the operating members respectively pivotably connected to the other one of the spring portions, and two second locking portions (18) respectively pivotably connected to the operating members. When the operating members are rotated downwardly, the first and second locking portions are raised, adapted for engaging with a retention frame and securing a heat sink to an electronic package.

Abstract: A clip (1) is used to attach a heat sink (2) onto a central processing unit (3). The clip includes a main body (10) and an operating body (20). The main body includes a central pressing portion (101), a pair of first and second spring arms (103, 102) extending from the pressing portion, and a first leg (104) depending from the first spring arm. Two pins (106) extend outwardly from opposite sides of a free end of the second spring arm. The operating body includes a handle (201), and a second leg (202) depending from the handle. The second leg defines an opening (212) bounded by two side walls (204). A slideway (205) is defined in an inner surface of each side wall, the slideway slidably receiving a corresponding pin therein. When the handle is pressed downwardly, the pins slide downwardly to be retained at bottoms (206) of the slideways.