mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: (a) a housing for coupling a keyboard to a tablet device through at least one respective electric interface and electric circuitry integrated in said housing; and characterised by (b) a camera (602, 612, 622) sensor integrated in said housing, said camera (602, 612, 622) sensor positioned such that, when the housing couples a keyboard to a tablet device in use, a central axis of a field of view of said camera (602, 612, 622) sensor is substantially parallel to a surface of said keyboard, said camera (602, 612, 622) sensor further configured to capture a plurality of images and to transmit said plurality of images to said tablet device through said respective electric interface and said electric circuitry. (a) a housing for coupling a keyboard to a tablet device through at least one respective electric interface and electric circuitry integrated in said housing; and characterised by (b) a camera (602, 612, 622) sensor integrated in said housing, said camera (602, 612, 622) sensor positioned such that, when the housing couples a keyboard to a tablet device in use, a central axis of a field of view of said camera (602, 612, 622) sensor is substantially parallel to a surface of said keyboard, said camera (602, 612, 622) sensor further configured to capture a plurality of images and to transmit said plurality of images to said tablet device through said respective electric interface and said electric circuitry.
A method for creating a three-dimensional mark (132; 160, 162, 164, 166, 168; 232) in a protective coating over a metal part, the method comprising: positioning a first mask over the protective coating, the first mask including a first opening pattern therein; performing a first abrasive waterjet process on the protective coating using the first mask, the first abrasive waterjet process eroding a first portion of the protective coating exposed through the first opening pattern to create the 3D mark, the 3D mark penetrating only partially through the protective coating; and removing the first mask, leaving the 3D mark in the protective coating; characterized in that the 3D mark in the protective coating includes an opening having a width between 30 and 300 micrometers and a depth less than 2.0 micrometers. positioning a first mask over the protective coating, the first mask including a first opening pattern therein; performing a first abrasive waterjet process on the protective coating using the first mask, the first abrasive waterjet process eroding a first portion of the protective coating exposed through the first opening pattern to create the 3D mark, the 3D mark penetrating only partially through the protective coating; and removing the first mask, leaving the 3D mark in the protective coating; characterized in that the 3D mark in the protective coating includes an opening having a width between 30 and 300 micrometers and a depth less than 2.0 micrometers.
A mooring apparatus (5a, 5b, 5c, 5d), comprising: a socket (10a, 10b, 10c, 10d) having a pair of seats (15a, 15a'; 15b, 15b'; 15c, 15c'; 15d, 15d'), and a connection member (20a, 20b, 20c, 20d) comprising: a pair of trunnions which are receivable/retainable on the pair of seats; and a pair of shoulders, wings or hooks (120, 120'), wherein the connection member is removably receivable in the socket and rotatable on the pair of seats, characterized in that in a retained position, at least a portion of one of the seats of the pair of seats is located between one of the trunnions of the pair of trunnions and one of the shoulders, wings or hooks of the pair of shoulders, wings or hooks; in a non-retained position, said one of the seats is not located between said one of the trunnions and said one of the shoulders, wings or hooks (120, 120'); the connection member is rotatable around a first axis between the non-retained position and the retained position when received in the socket; and the pair of shoulders, wings or hooks are adapted to move around and/or rotate around or about outer surfaces of the pair of seats. a socket (10a, 10b, 10c, 10d) having a pair of seats (15a, 15a'; 15b, 15b'; 15c, 15c'; 15d, 15d'), and a connection member (20a, 20b, 20c, 20d) comprising: a pair of trunnions which are receivable/retainable on the pair of seats; and a pair of shoulders, wings or hooks (120, 120'), a pair of trunnions which are receivable/retainable on the pair of seats; and a pair of shoulders, wings or hooks (120, 120'), wherein the connection member is removably receivable in the socket and rotatable on the pair of seats, characterized in that in a retained position, at least a portion of one of the seats of the pair of seats is located between one of the trunnions of the pair of trunnions and one of the shoulders, wings or hooks of the pair of shoulders, wings or hooks; in a non-retained position, said one of the seats is not located between said one of the trunnions and said one of the shoulders, wings or hooks (120, 120'); the connection member is rotatable around a first axis between the non-retained position and the retained position when received in the socket; and the pair of shoulders, wings or hooks are adapted to move around and/or rotate around or about outer surfaces of the pair of seats. in a retained position, at least a portion of one of the seats of the pair of seats is located between one of the trunnions of the pair of trunnions and one of the shoulders, wings or hooks of the pair of shoulders, wings or hooks; in a non-retained position, said one of the seats is not located between said one of the trunnions and said one of the shoulders, wings or hooks (120, 120'); the connection member is rotatable around a first axis between the non-retained position and the retained position when received in the socket; and the pair of shoulders, wings or hooks are adapted to move around and/or rotate around or about outer surfaces of the pair of seats.
A medical device, comprising at least one implantable device having at least one implantable portion adapted for at least partially being implanted into a body tissue of a user, the implantable device further having at least one contact portion connected to the implantable portion, the medical device further comprising at least one housing, wherein the housing is configured to receive the implantable portion, wherein the housing is configured to provide a sterile packaging such that the implantable portion is sealed against a surrounding environment, wherein the housing comprises at least one first part and at least one second part, wherein the first part and the second part are removable connectable to form the sterile packaging, wherein the first part comprises at least one first sealing surface and wherein the second part comprises at least one second sealing surface, wherein the first sealing surface and the second sealing surface interact to form a sealing area, wherein the implantable device has an interconnecting portion connecting the implantable portion and the contact portion, wherein the interconnecting portion is led through the sealing area.
An interlocking device for a lock latch-bolt of a door lock, which latch-bolt is translationally displaceable along a movement direction, including an interior sleeve and an exterior sleeve, which surrounds the interior sleeve and which is displaceable in relation to the interior sleeve against the force of the spring of an exterior spring device from a securing position into a releasing position, wherein a displacement shoulder for engaging of a displacement nose of a lock slider is configured at the exterior sleeve, wherein the lock slider with the displacement nose acts upon the displacement shoulder, in order to move the exterior sleeve from the securing position into the releasing position, wherein, on the inside of the interior sleeve, a piston rod is supported to be displaceable against the spring force of an interior spring device form a closed position into an opening position, wherein furthermore a ball securing device is provided, which includes at least one ball disposed in a radial ball opening of the interior sleeve, wherein the piston rod includes a piston ring groove and the exterior sleeve a sleeve ring groove, which are configured such that the at least one ball, in the closed position of the piston rod, abuts against the piston ring groove and prevents the movement of the piston rod, and the sleeve ring groove in the release position of the exterior sleeve, allows for a radial movement of the at least one ball for releasing the movement of the piston rod.
An abrasive article, comprising: an abrasive portion comprising an organic bond and abrasive particles; and a non-abrasive portion coupled to the abrasive portion, characterized in that the non-abrasive portion comprising a molding compound having no abrasive particles, wherein the molding compound comprises chopped strand fibers. an abrasive portion comprising an organic bond and abrasive particles; and a non-abrasive portion coupled to the abrasive portion, characterized in that the non-abrasive portion comprising a molding compound having no abrasive particles, wherein the molding compound comprises chopped strand fibers.
A method of benchmark testing using test data, the method comprising: creating, by a first computer system, a master copy of data in a data storage means accessible by the first computer system, the master copy of the data representing data on which the benchmark testing is to be performed; creating, by the first computer system, a first duplicate copy of the master copy in an additional data storage means, the additional data storage means being accessible by a second computer system; using the second computer system to execute a first benchmark test using the first duplicate copy stored in the additional data storage means, the first benchmark test modifying the data stored in the additional storage means; characterised by the step of using the first computer system to restore the data in the additional storage according to the master copy of the data which is not altered during execution of the benchmark test. creating, by a first computer system, a master copy of data in a data storage means accessible by the first computer system, the master copy of the data representing data on which the benchmark testing is to be performed; creating, by the first computer system, a first duplicate copy of the master copy in an additional data storage means, the additional data storage means being accessible by a second computer system; using the second computer system to execute a first benchmark test using the first duplicate copy stored in the additional data storage means, the first benchmark test modifying the data stored in the additional storage means; characterised by the step of using the first computer system to restore the data in the additional storage according to the master copy of the data which is not altered during execution of the benchmark test.
A method of wireless communication performed by a user equipment, UE,, comprising: determining (905; 1005; 1105) that the UE is to perform a public land mobile network, PLMN, scan operation, the PLMN scan operation to be performed during a PLMN scan window; tracking (910; 1010; 1110) a static state time representing an amount of time that the UE has remained within a static state; adjusting (430; 915; 1015; 1115) the PLMN scan window of the UE based at least in part on the static state time satisfying a static state time threshold; updating the static state time threshold based on the static state time satisfying the static state time threshold, wherein an updated static state time threshold is based in part on f a previous value of the static state time threshold and the adjusted PLMN scan window; resetting (1025; 1125) a timer associated with the static state time upon adjustment of the PLMN scan window; and performing the PLMN scan operation utilizing the adjusted PLMN scan window. determining (905; 1005; 1105) that the UE is to perform a public land mobile network, PLMN, scan operation, the PLMN scan operation to be performed during a PLMN scan window; tracking (910; 1010; 1110) a static state time representing an amount of time that the UE has remained within a static state; adjusting (430; 915; 1015; 1115) the PLMN scan window of the UE based at least in part on the static state time satisfying a static state time threshold; updating the static state time threshold based on the static state time satisfying the static state time threshold, wherein an updated static state time threshold is based in part on f a previous value of the static state time threshold and the adjusted PLMN scan window; resetting (1025; 1125) a timer associated with the static state time upon adjustment of the PLMN scan window; and performing the PLMN scan operation utilizing the adjusted PLMN scan window.
A ring-shaped element for an etcher, comprising: a body portion comprising an upper surface; a bottom surface; an outer diameter surface connecting an outer contour line of the upper surface and an outer contour line of the bottom surface; and an inner diameter surface connected to an inner contour line of the upper surface; wherein the upper surface and the bottom surface of the body portion are spaced a distance from each other by the outer diameter surface; and a mounting portion comprising an upper surface comprising an outer diameter directly connected to the inner diameter surface of the body portion at a position lower than the upper surface of the body portion, a bottom surface connected to the bottom surface of the body portion, and spaced a distance from the upper surface by an inner diameter surface connecting an inner contour line of the upper surface and an inner contour line of the bottom surface, wherein the upper surface of the mounting portion is stepped from the upper surface of the body portion such that it constitutes a substrate mounting portion thereon, wherein the surface or entire body of the ring-shaped element comprises necked boron carbide-containing particles, and wherein the thermal conductivity of the ring-shaped element at 400 °C is 27 W/m·K or less. a body portion comprising an upper surface; a bottom surface; an outer diameter surface connecting an outer contour line of the upper surface and an outer contour line of the bottom surface; and an inner diameter surface connected to an inner contour line of the upper surface; wherein the upper surface and the bottom surface of the body portion are spaced a distance from each other by the outer diameter surface; and a mounting portion comprising an upper surface comprising an outer diameter directly connected to the inner diameter surface of the body portion at a position lower than the upper surface of the body portion, a bottom surface connected to the bottom surface of the body portion, and spaced a distance from the upper surface by an inner diameter surface connecting an inner contour line of the upper surface and an inner contour line of the bottom surface, wherein the upper surface of the mounting portion is stepped from the upper surface of the body portion such that it constitutes a substrate mounting portion thereon, wherein the surface or entire body of the ring-shaped element comprises necked boron carbide-containing particles, and wherein the thermal conductivity of the ring-shaped element at 400 °C is 27 W/m·K or less.
A method of producing a compound represented by the formula: which comprises Step A: a step of reacting a compound represented by the formula: formaldehyde and hydrogen in the presence of a metal catalyst, in a solvent, wherein the amount of the formaldehyde to be used is exceeding 1 mol and not exceeding 5 mol per 1 mol of the compound represented by the formula, to obtain a mixture containing the formaldehyde and the compound represented by the formula, and Step B: a step of mixing the obtained mixture containing the formaldehyde and the compound represented by the formula with hydrogen and a secondary amine selected from the group consisting of diethylamine, dipropylamine, diisopropylamine, butylethylamine, pyrrolidine, piperidine and morpholine, in the presence of a metal catalyst, in a solvent, and then removing the metal catalyst, followed by obtaining the compound represented by the formula by distillation.
A computer-implemented method comprising: receiving, at a central processing unit, input data that is to be masked and written at a memory location within an external memory coupled to the CPU, wherein the memory location is addressable by a plurality of memory channels; dynamically generating, within a boundary of the CPU, a mask value uniquely associated with a memory channel of the plurality of memory channels that is currently being used to address the memory location; prior to writing at the memory location within the external memory, modifying, within the boundary of the CPU, the input data by masking the input data with the dynamically generated mask value; and storing the modified input data at the memory location within the external memory. receiving, at a central processing unit, input data that is to be masked and written at a memory location within an external memory coupled to the CPU, wherein the memory location is addressable by a plurality of memory channels; dynamically generating, within a boundary of the CPU, a mask value uniquely associated with a memory channel of the plurality of memory channels that is currently being used to address the memory location; prior to writing at the memory location within the external memory, modifying, within the boundary of the CPU, the input data by masking the input data with the dynamically generated mask value; and storing the modified input data at the memory location within the external memory.
An uninterruptible power supply, UPS,, comprising: an input to receive input AC power from an engine-generator and configured to be coupled to one or more non-protected loads; an output configured to be coupled to one or more protected loads; an input circuit coupled to the input and configured to provide power factor correction and convert the input AC power into DC power; a DC bus coupled to the input circuit; an inverter coupled to the DC bus and configured to provide output AC power, derived from the DC power, to the output; and a controller coupled to the input circuit and configured to: monitor an input AC voltage at the input; characterized in that the controller is further configured to: generate a reactive current reference by comparing the monitored input AC voltage to an engine-generator reference voltage; and based, at least in part, on the reactive current reference, adjust the current draw of the UPS to control a combined power factor of the protected and non-protected loads. an input to receive input AC power from an engine-generator and configured to be coupled to one or more non-protected loads; an output configured to be coupled to one or more protected loads; an input circuit coupled to the input and configured to provide power factor correction and convert the input AC power into DC power; a DC bus coupled to the input circuit; an inverter coupled to the DC bus and configured to provide output AC power, derived from the DC power, to the output; and a controller coupled to the input circuit and configured to: monitor an input AC voltage at the input; characterized in that the controller is further configured to: generate a reactive current reference by comparing the monitored input AC voltage to an engine-generator reference voltage; and based, at least in part, on the reactive current reference, adjust the current draw of the UPS to control a combined power factor of the protected and non-protected loads. monitor an input AC voltage at the input; characterized in that the controller is further configured to: generate a reactive current reference by comparing the monitored input AC voltage to an engine-generator reference voltage; and based, at least in part, on the reactive current reference, adjust the current draw of the UPS to control a combined power factor of the protected and non-protected loads. generate a reactive current reference by comparing the monitored input AC voltage to an engine-generator reference voltage; and based, at least in part, on the reactive current reference, adjust the current draw of the UPS to control a combined power factor of the protected and non-protected loads.
A replacement toilet brush having an edge cleaner and a brush handle, wherein - a continuous one-piece TPE-V body has a base body with a receptacle, bristles and an edge cleaner with individually protruding cleaning bristles, - the bristles individually projecting have a conically outwardly tapering spatial form with a blunt tip, - the bristles have a thickness over the entire bristle length in the millimeter range, - the bristles have tips which are a millimeter thick and formed blunt ending, - wherein the cleaning bristles have the same spatial shape as the bristles, - the TPE-V is dyed gray to dark gray, - the brush head has a substantially bell-shaped spatial form, - is mounted in the receptacle of the brush handle and - that the brush handle is made of stainless steel. - a continuous one-piece TPE-V body has a base body with a receptacle, bristles and an edge cleaner with individually protruding cleaning bristles, - the bristles individually projecting have a conically outwardly tapering spatial form with a blunt tip, - the bristles have a thickness over the entire bristle length in the millimeter range, - the bristles have tips which are a millimeter thick and formed blunt ending, - wherein the cleaning bristles have the same spatial shape as the bristles, - the TPE-V is dyed gray to dark gray, - the brush head has a substantially bell-shaped spatial form, - is mounted in the receptacle of the brush handle and - that the brush handle is made of stainless steel.
A MEMS switch (10,30) comprising: a substrate; a first and a second actuating element electrically coupled together; wherein the first and second actuating elements are integrally formed as opposite ends of a moveable actuator; one or more anchors mechanically coupled to the substrate and supporting the first and second actuating element, wherein the first and second actuating elements (21,22) share the same anchor region and are electrically conductive; and characterized in that the first and second actuating elements (21,22) are arranged to be simultaneously attracted to the substrate; and a gate driver is configured to provide a common gating signal to actuate the first and second actuating elements. a substrate; a first and a second actuating element electrically coupled together; wherein the first and second actuating elements are integrally formed as opposite ends of a moveable actuator; one or more anchors mechanically coupled to the substrate and supporting the first and second actuating element, wherein the first and second actuating elements (21,22) share the same anchor region and are electrically conductive; and characterized in that the first and second actuating elements (21,22) are arranged to be simultaneously attracted to the substrate; and a gate driver is configured to provide a common gating signal to actuate the first and second actuating elements.