mhurhangee/patent-ind-claim-en huggingface dataset:
An annular tire sleeve for being installed onto a tire for skid avoidance training, comprising: a low friction tread formed on an exterior surface of the sleeve for contacting a road surface; an interior surface of the sleeve having an array of studs projecting outwardly from the interior surface of the sleeve for engaging and securing the sleeve to the tire; and an integrally formed flange extending radially inward from an outside edge of the sleeve for maintaining the sleeve on an outside shoulder of the tire during a skid; characterized in that the sleeve thickness is graduated from a relatively thicker inside edge of the sleeve to a relatively thinner outside edge of the sleeve, wherein inside and outside directions are defined in relation to the vehicle when the tire is installed, outside facing away from the vehicle and inside facing toward the vehicle . a low friction tread formed on an exterior surface of the sleeve for contacting a road surface; an interior surface of the sleeve having an array of studs projecting outwardly from the interior surface of the sleeve for engaging and securing the sleeve to the tire; and an integrally formed flange extending radially inward from an outside edge of the sleeve for maintaining the sleeve on an outside shoulder of the tire during a skid; characterized in that the sleeve thickness is graduated from a relatively thicker inside edge of the sleeve to a relatively thinner outside edge of the sleeve, wherein inside and outside directions are defined in relation to the vehicle when the tire is installed, outside facing away from the vehicle and inside facing toward the vehicle .
A connecting device for foldable tables or chairs, the connecting device comprising: a case ; a first rod , a second rod , and a third rod that are connected to the case ; two first connecting members configured to connect the second rod and the third rod to the case ; a second connecting member configured to connect the first rod to the case ; and a spring arranged within the case and arranged around the second connecting member ; wherein the case comprises an upper housing and a lower housing , the upper housing and the lower housing define a first receiving hole , a second receiving hole , and a third receiving hole , the second connecting member and the two first connecting members are received in the first receiving hole , the second receiving hole , and the third receiving hole , respectively, the lower housing comprises two shafts that are located at opposite sides of the second connecting member , and two rotary tabs that are movably connected to the two shafts , the two rotary tabs each comprise a first end that is movably connected to the second connecting member and a second end, and the second ends are movably connected to the first connecting members , respectively; wherein the second connecting member is T-shaped and comprises three ends, a first and a second of the three ends each define a slot , and comprises a post in the slot , and a third of the three ends defines a recess to securely receive one end of the first rod . a case ; a first rod , a second rod , and a third rod that are connected to the case ; two first connecting members configured to connect the second rod and the third rod to the case ; a second connecting member configured to connect the first rod to the case ; and a spring arranged within the case and arranged around the second connecting member ; wherein the case comprises an upper housing and a lower housing , the upper housing and the lower housing define a first receiving hole , a second receiving hole , and a third receiving hole , the second connecting member and the two first connecting members are received in the first receiving hole , the second receiving hole , and the third receiving hole , respectively, the lower housing comprises two shafts that are located at opposite sides of the second connecting member , and two rotary tabs that are movably connected to the two shafts , the two rotary tabs each comprise a first end that is movably connected to the second connecting member and a second end, and the second ends are movably connected to the first connecting members , respectively; wherein the second connecting member is T-shaped and comprises three ends, a first and a second of the three ends each define a slot , and comprises a post in the slot , and a third of the three ends defines a recess to securely receive one end of the first rod .
An alignment device, comprising a light regulating member and a light source provided at a side of the light regulating member , the light regulating member comprising a plurality of shading regions and a plurality of transmitting regions alternately provided along a length direction of the light regulating member , characterized in that the alignment device further comprises a base for placing the substrate to be aligned, the light source and the light regulating member being provided at two sides of the base , respectively, wherein the base comprises a mount area corresponding to the light regulating member , and light emitted by the light source is able to pass through the mount area , the alignment device further comprises, above the base , a moving member for moving a flexible printed circuit board to a position above the substrate to be aligned and causing a plurality of goldfingers on the flexible printed circuit board to be aligned and in contact with the plurality of electrodes on the substrate to be aligned, the plurality of transmitting regions are preconfigured to have shapes identical to those of electrodes on a substrate to be aligned, and have positions corresponding to those of the plurality of electrodes on the substrate to be aligned, and the alignment device is operable to configure the plurality of electrodes on the substrate to be aligned to overlap the transmitting regions . the alignment device further comprises a base for placing the substrate to be aligned, the light source and the light regulating member being provided at two sides of the base , respectively, wherein the base comprises a mount area corresponding to the light regulating member , and light emitted by the light source is able to pass through the mount area , the alignment device further comprises, above the base , a moving member for moving a flexible printed circuit board to a position above the substrate to be aligned and causing a plurality of goldfingers on the flexible printed circuit board to be aligned and in contact with the plurality of electrodes on the substrate to be aligned, the plurality of transmitting regions are preconfigured to have shapes identical to those of electrodes on a substrate to be aligned, and have positions corresponding to those of the plurality of electrodes on the substrate to be aligned, and the alignment device is operable to configure the plurality of electrodes on the substrate to be aligned to overlap the transmitting regions .
A time-division duplexing system , comprising: a first transceiver coupled to a first subscriber line , the first transceiver configured to communicate across the first subscriber line in accordance with a fixed frame format whereby, for each frame, the number of downstream timeslots and the number of upstream timeslots are both fixed; a second transceiver coupled to a second subscriber line and configured to communicate across the second subscriber line; and at least one controller configured to dynamically control upstream capacity and downstream capacity for the second subscriber line according to a coordinated dynamic time assignment, cDTA, algorithm, the at least one controller further configured to mute at least one timeslot for the first transceiver based on an allocation of timeslots for the second transceiver according to the cDTA algorithm and in response to a determination by the controller that a communication direction for the at least one timeslot for the first transceiver is conflicting with a communication direction for at least one timeslot for the second transceiver, thereby reducing crosstalk that couples from the first subscriber line to the second subscriber line, wherein the at least one timeslot for the first transceiver overlaps in time with the at least one timeslot for the second transceiver. a first transceiver coupled to a first subscriber line , the first transceiver configured to communicate across the first subscriber line in accordance with a fixed frame format whereby, for each frame, the number of downstream timeslots and the number of upstream timeslots are both fixed; a second transceiver coupled to a second subscriber line and configured to communicate across the second subscriber line; and at least one controller configured to dynamically control upstream capacity and downstream capacity for the second subscriber line according to a coordinated dynamic time assignment, cDTA, algorithm, the at least one controller further configured to mute at least one timeslot for the first transceiver based on an allocation of timeslots for the second transceiver according to the cDTA algorithm and in response to a determination by the controller that a communication direction for the at least one timeslot for the first transceiver is conflicting with a communication direction for at least one timeslot for the second transceiver, thereby reducing crosstalk that couples from the first subscriber line to the second subscriber line, wherein the at least one timeslot for the first transceiver overlaps in time with the at least one timeslot for the second transceiver.
A method of using service graphs to compare performance of a plurality of versions of a microservice, the method comprising: (a) establishing , by one or more devices, metrics from execution of a plurality of versions of a microservice of a service deployed concurrently for at least a portion of execution of the service; (b) generating , by the one or more devices, a service graph for each version of the plurality of versions of the microservice, each of the service graphs comprising metrics from execution of a respective version of the microservice; (c) identifying , by the one or more devices, one or more differences in metrics between the service graphs for different versions of the microservice; and (d) routing network traffic of the service between respective versions of the microservice based at least on the one or more differences. (a) establishing , by one or more devices, metrics from execution of a plurality of versions of a microservice of a service deployed concurrently for at least a portion of execution of the service; (b) generating , by the one or more devices, a service graph for each version of the plurality of versions of the microservice, each of the service graphs comprising metrics from execution of a respective version of the microservice; (c) identifying , by the one or more devices, one or more differences in metrics between the service graphs for different versions of the microservice; and (d) routing network traffic of the service between respective versions of the microservice based at least on the one or more differences.
Composition comprising: a) carnitine, b) sodium cholate, c) sodium acetate, for use in the treatment of psoriasis. a) carnitine, b) sodium cholate, c) sodium acetate,
A line striper comprising: a material deployment system configured to receive material from a material source and deliver the received material to a material deployment mechanism , wherein the material deployment mechanism is configured to apply the received material to a surface; and a mechanical debris removal system comprising a contact mechanism configured to facilitate dislodging of the debris from the surface characterized in that the mechanical debris removal system is configured to rotate between a deployed position and a storage position independently from the material deployment system and, when deployed, move along an application path ahead of the material deployment mechanism such that debris is dislodged from the surface. a material deployment system configured to receive material from a material source and deliver the received material to a material deployment mechanism , wherein the material deployment mechanism is configured to apply the received material to a surface; and a mechanical debris removal system comprising a contact mechanism configured to facilitate dislodging of the debris from the surface characterized in that the mechanical debris removal system is configured to rotate between a deployed position and a storage position independently from the material deployment system and, when deployed, move along an application path ahead of the material deployment mechanism such that debris is dislodged from the surface.
A connecting device configured to connect a container including a male coupling end piece to a vial including a vial body equipped with a neck sealingly closed by a perforable closure element , the connecting device including: - a mounting portion configured to be mounted on the vial body , - a female coupling end piece intended to be coupled to the male coupling end piece of the container , - a perforation element which includes a connecting channel and which is configured to perforate the perforable closure element , the perforation element being movable between a rest position and a perforation position in which, when the connecting device is mounted on the vial body , the perforation element is adapted to perforate the perforable closure element and the connecting channel is adapted to fluidly connect the female coupling end piece to an inner volume of the vial body , - a protective cap which is removable and which at least partially delimits an inner chamber in which the female coupling end piece at least partially extends, the protective cap at least partially covering and at least partially protecting the female coupling end piece , characterized in that the connecting device further includes: - at least one passage orifice opening into the inner chamber , the at least one passage orifice is intended for the passage of a sterilization gas, and - a closing membrane at least partially covering the at least one passage orifice , the closing membrane being porous and permeable to the sterilization gas. - a mounting portion configured to be mounted on the vial body , - a female coupling end piece intended to be coupled to the male coupling end piece of the container , - a perforation element which includes a connecting channel and which is configured to perforate the perforable closure element , the perforation element being movable between a rest position and a perforation position in which, when the connecting device is mounted on the vial body , the perforation element is adapted to perforate the perforable closure element and the connecting channel is adapted to fluidly connect the female coupling end piece to an inner volume of the vial body , - a protective cap which is removable and which at least partially delimits an inner chamber in which the female coupling end piece at least partially extends, the protective cap at least partially covering and at least partially protecting the female coupling end piece , - at least one passage orifice opening into the inner chamber , the at least one passage orifice is intended for the passage of a sterilization gas, and - a closing membrane at least partially covering the at least one passage orifice , the closing membrane being porous and permeable to the sterilization gas.
A composition for use in treating a neurological disease in a patient in need thereof, wherein the composition comprises a recombinant AAV9 (rAAV9), and the use comprises delivering the composition to the patient by intrathecal, intracisternal or intracerebroventricular injection in combination with a non-ionic, low-osmolar contrast agent, wherein the rAAV9 comprises an rAAV9 genome including a therapeutic polynucleotide, wherein the rAAV9 genome is a single-stranded genome and/or the rAAV9 genome is a self-complementary genome and wherein the neurological disease is CLN1 disease, CLN2 disease, CLN3 disease, CLN4 disease, CLN5 disease, CLN6 disease, or CLN8 disease.
Athermal spray gun apparatus comprising: an electrode body housing an electrode; a thermal spray gun body having a thermal spray gun nozzle , a fore end and an aft end, the thermal spray gun body removably attached to the electrode body at the aft end, wherein the thermal spray gun body is electrically insulated from an electrode housed within the electrode body , the thermal spray gun body holding the thermal spray gun nozzle , wherein the thermal spray gun nozzle comprises an inner face comprising a fore end and an aft end, wherein a cross-sectional area of the fore end of the thermal spray gun nozzle is greater than a cross-sectional area of the aft end of the thermal spray gun nozzle ; and a removable nozzle insert , the removable nozzle insert in circumferential contact with the inner face of the thermal spray gun nozzle and configured to transfer heat thereto, the removable nozzle insert including an axial passage configured to communicate a plasma discharge from within the thermal spray gun body through the axial passage ; wherein the electrode body is configured to generate an electrical arc directly between the electrode and the thermal spray gun nozzle , for converting a gas feedstock into the plasma discharge . an electrode body housing an electrode; a thermal spray gun body having a thermal spray gun nozzle , a fore end and an aft end, the thermal spray gun body removably attached to the electrode body at the aft end, wherein the thermal spray gun body is electrically insulated from an electrode housed within the electrode body , the thermal spray gun body holding the thermal spray gun nozzle , wherein the thermal spray gun nozzle comprises an inner face comprising a fore end and an aft end, wherein a cross-sectional area of the fore end of the thermal spray gun nozzle is greater than a cross-sectional area of the aft end of the thermal spray gun nozzle ; and a removable nozzle insert , the removable nozzle insert in circumferential contact with the inner face of the thermal spray gun nozzle and configured to transfer heat thereto, the removable nozzle insert including an axial passage configured to communicate a plasma discharge from within the thermal spray gun body through the axial passage ; wherein the electrode body is configured to generate an electrical arc directly between the electrode and the thermal spray gun nozzle , for converting a gas feedstock into the plasma discharge .
Condenser having a first and a second collecting tube , a plurality of heater canals , which extend between the two collecting tubes, an inlet for a substantially gaseous coolant, which is arranged at one of the two collecting tubes , and an outlet for a substantially liquid coolant, which is arranged at one of the two collecting tubes , wherein one of the collecting tubes is provided with an insert which defines a flow canal which is in communication at one end with the coolant inlet and at the other end, by means of an overflow opening , with the inside of the collecting tube , characterized in that the insert is in the form of a trough with inclined end faces.
A method for depicting avionics data anomalies in an aircraft, the method comprising: receiving, via at least one processor, time series data from at least one avionics data source; predicting, via the at least one processor, a future time when a first anomaly threshold will be crossed based on the time series data; and depicting, on a display device associated with the aircraft, the future time when the first anomaly threshold will be crossed, characterized in that depicting the future time includes moving an anomaly flag along a time graph as the future time approaches and moving the anomaly flag into a static gutter portion adjacent the time graph when the at least one avionics data source is determined to be currently anomalous. receiving, via at least one processor, time series data from at least one avionics data source; predicting, via the at least one processor, a future time when a first anomaly threshold will be crossed based on the time series data; and depicting, on a display device associated with the aircraft, the future time when the first anomaly threshold will be crossed, characterized in that depicting the future time includes moving an anomaly flag along a time graph as the future time approaches and moving the anomaly flag into a static gutter portion adjacent the time graph when the at least one avionics data source is determined to be currently anomalous.
A component for a gas turbine engine, comprising: a platform (62; 64) having a non-gas path surface (68; 168) and a gas path surface ; a cover plate (74; 174) positioned relative to said non-gas path surface (68; 168); a cooling passage (86; 186) that extends between said cover plate (74; 174) and said non-gas path surface (68; 168); and at least one cooling entrance (84; 184) formed through said cover plate (74; 174) and configured to bias the flow of a cooling fluid toward a prioritized location (P1) of said non-gas path surface (68; 168); wherein said cover plate (74; 174) includes a leading edge , a trailing edge and a main body that extends between said leading edge and said trailing edge ; wherein said leading edge is angled and elevated relative to said main body , characterized in that said at least one cooling entrance (84; 184) is positioned exclusively at a first location of said cover plate (74; 174) in said angled and elevated leading edge , and said cover plate (74; 174) excludes cooling openings outside of said first location. a platform (62; 64) having a non-gas path surface (68; 168) and a gas path surface ; a cover plate (74; 174) positioned relative to said non-gas path surface (68; 168); a cooling passage (86; 186) that extends between said cover plate (74; 174) and said non-gas path surface (68; 168); and at least one cooling entrance (84; 184) formed through said cover plate (74; 174) and configured to bias the flow of a cooling fluid toward a prioritized location (P1) of said non-gas path surface (68; 168); wherein said cover plate (74; 174) includes a leading edge , a trailing edge and a main body that extends between said leading edge and said trailing edge ; wherein said leading edge is angled and elevated relative to said main body , characterized in that