mhurhangee/ep-ind-claims huggingface dataset:
A system of manufacturing comprising: a plurality of work cells (12, 14, 16, 18), where each of said cells performs one or more manufacturing processes on an associated one of a plurality of workpieces; a controlling device (12a, 14a, 16a, 18a) included in each work cell of the plurality of work cells and configured to determine if a work performed at a corresponding work cell is properly completed, one or more mobile transport units (20a, 20b), MTUs, to deliver transportable containers containing said workpieces to and from said work cells, said one or more mobile transport units delivering said containers to said work cells by lanes or paths between said work cells and in a manner such that said workpieces are localized in said work cells; and a computer system communicating with the controlling device in each of the work cell, having therein status information for each of said one or more MTUs and using said status information to control each of said one or more MTUs to deliver said transportable containers to and from said work cells; wherein when a determination is made that work performed at one of said work cells on said associated workpiece is in error, said computer system commands said associated one of said one or more MTUs to deliver said transportable container with said workpiece on which said work was performed to one of a rework station or a disposal area. a plurality of work cells (12, 14, 16, 18), where each of said cells performs one or more manufacturing processes on an associated one of a plurality of workpieces; a controlling device (12a, 14a, 16a, 18a) included in each work cell of the plurality of work cells and configured to determine if a work performed at a corresponding work cell is properly completed, one or more mobile transport units (20a, 20b), MTUs, to deliver transportable containers containing said workpieces to and from said work cells, said one or more mobile transport units delivering said containers to said work cells by lanes or paths between said work cells and in a manner such that said workpieces are localized in said work cells; and a computer system communicating with the controlling device in each of the work cell, having therein status information for each of said one or more MTUs and using said status information to control each of said one or more MTUs to deliver said transportable containers to and from said work cells; wherein when a determination is made that work performed at one of said work cells on said associated workpiece is in error, said computer system commands said associated one of said one or more MTUs to deliver said transportable container with said workpiece on which said work was performed to one of a rework station or a disposal area.
Pressure reducing valve for reducing a pressure of a gas from a first pressure to a second pressure, comprising a valve body, in which a first pressure chamber with a gas inlet for inlet of the gas at the first pressure and a second pressure chamber, coupled in a fluid-communicating manner to the first pressure chamber, with a gas outlet for outlet of the gas at the second pressure are formed, and a pressure equalizing piston, guided such that it can be moved translationally in the valve body, with a pressure plunger, arranged in the second pressure chamber and peripherally sealed against a wall of the second pressure chamber, and a pressure stem, arranged on the pressure plunger and guided in the valve body between the first pressure chamber and the second pressure chamber, wherein a gas duct is formed in the interior of the pressure equalizing piston, wherein the gas duct has, on one side of the pressure stem facing away from the pressure plunger, a duct inlet for inlet of the gas from the first pressure chamber and, on one side of the pressure plunger facing away from the pressure stem, a duct outlet for outlet of the gas into the second pressure chamber, wherein a front wall of the duct inlet can be pressed into a closed position by the translational movement of the pressure equalizing piston against a first seal apparatus, arranged in the first pressure chamber, in order to seal the duct inlet, wherein the pressure reducing valve comprises a spring apparatus for moving the duct inlet away from the first seal apparatus from the closed position into an open position, and wherein a second seal apparatus is arranged between the pressure stem and the valve body, characterized in that, in a region between the second pressure chamber and the second seal apparatus, a third seal apparatus is arranged between the pressure stem and the valve body, wherein the pressure stem has, between the second seal apparatus and the third seal apparatus, a transverse duct, wherein the transverse duct connects the gas duct to an outer side of the pressure stem in a fluid-communicating manner.
A mammographic tomography test phantom for use in the verification of image reconstruction positions in digital breast tomosynthesis, the phantom including: a body made from an approximately tissue equivalent x-ray attenuating material; an upper spacer located on top of the body, and a lower spaced located below the body, the spacers being made from a substantially non-compressible material; and a plurality of x-ray opaque nodules located at predetermined positions within the body, characterised in that the X-ray opaque modules are at different depths. a body made from an approximately tissue equivalent x-ray attenuating material; an upper spacer located on top of the body, and a lower spaced located below the body, the spacers being made from a substantially non-compressible material; and a plurality of x-ray opaque nodules located at predetermined positions within the body, characterised in that the X-ray opaque modules are at different depths.
A battery module, characterized in that, comprising: a plurality of power batteries, a module casing, a separating plate, battery connecting strips, detecting terminals, a cell module controller, and a joint block; the power batteries are disposed in the module casing, the separating plate is arranged above the power batteries, and through-holes are arranged on the separating plate corresponding to electrode terminals of the power batteries, the battery connecting strips are arranged above the separating plate, and are connected with the electrode terminals of the power batteries through the through-holes, so that all the power batteries are electrically connected, the cell module controller is arranged above the separating plate, and press-fit holes are provided on the cell module controller, a terminal connecting portion is arranged on the battery connecting strip, the detecting terminal is located between the separating plate and the cell module controller, one end of the detecting terminal is connected with the terminal connecting portion, the other end of the detecting terminal is provided with a press-fit contact, the press-fit contact is connected in press-fit with the press-fit hole; a first connecting hole is provided on the terminal connecting portion, and a second connecting hole is provided at an end of the detecting terminal away from the press-fit contact; and one end of the joint block protrudes into the first connecting hole and is connected with the terminal connecting portion, and the other end of the joint block protrudes into the second connecting hole, and is connected with the detecting terminal. the power batteries are disposed in the module casing, the separating plate is arranged above the power batteries, and through-holes are arranged on the separating plate corresponding to electrode terminals of the power batteries, the battery connecting strips are arranged above the separating plate, and are connected with the electrode terminals of the power batteries through the through-holes, so that all the power batteries are electrically connected, the cell module controller is arranged above the separating plate, and press-fit holes are provided on the cell module controller, a terminal connecting portion is arranged on the battery connecting strip, the detecting terminal is located between the separating plate and the cell module controller, one end of the detecting terminal is connected with the terminal connecting portion, the other end of the detecting terminal is provided with a press-fit contact, the press-fit contact is connected in press-fit with the press-fit hole; a first connecting hole is provided on the terminal connecting portion, and a second connecting hole is provided at an end of the detecting terminal away from the press-fit contact; and one end of the joint block protrudes into the first connecting hole and is connected with the terminal connecting portion, and the other end of the joint block protrudes into the second connecting hole, and is connected with the detecting terminal.
A fabric pressure switch, comprising a first resilient conductive tissue, a second resilient conductive tissue and a support tissue, which connects between the first resilient conductive tissue and the second resilient conductive tissue characterized in that the first resilient conductive tissue, which is formed by arranging and interlacing a plurality of first structural yarns, a plurality of first elastic yarns, and a plurality of first electrically conductive yarns, wherein each of the first structural yarns is combined with each of the first elastic yarns as a strand for being alternately arranged with each of the first electrically conductive yarns; the second resilient conductive tissue, which is formed by arranging and interlacing a plurality of second structural yarns and a plurality of second elastic yarns, and a plurality of second electrically conductive yarns, wherein each of the second structural yarns is combined with each of the second elastic yarns as a strand for being alternately arranged with each of the second electrically conductive yarns; and the support tissue, which is formed of a plurality of first support yarns and a plurality of second support yarns and wherein each of the first support yarns is arranged, with each strand of the first structural yarns and the first elastic yarns and extends to each strand of the second structural yarns and the second elastic yarns arranged in the second resilient conductive tissue, and each of the second support yarns is arranged with each of the first electrically conductive yarns and extends to each of the second electrically conductive yarns corresponding to the first electrically conductive yarns.
A bypass conduit delivery device comprising: first and second separately manipulable introducers (3, 5) for carrying a bypass conduit (80, 90) provided with first and second ends (83, 84; 93, 94) and an intermediate portion (82, 91), the bypass conduit being mountable onto the introducers in a substantially U shape with the first end and a first portion of the bypass conduit (80, 90) retained onto the first introducer and the second end and a second portion of the bypass conduit retained on the second introducer and the intermediate portion (82, 91) extending between the first and second introducers (3, 5), each of the first and second introducers (3, 5) including a splittable sheath (17, 31) co-axially therearound operable to contain the first and second portions (83, 84; 93, 94) of a bypass conduit on the first and second introducers (3, 5) respectively, each splittable sheath (17, 31) including an aperture (18, 32) for allowing the intermediate portion (82, 91) of a bypass conduit (80, 90) to extend between the first introducer and the second introducer through the respective apertures (18, 32) in the sheath, the bypass conduit including an aperture (87, 87a, 95) in the intermediate portion thereof; wherein the first and second introducers (3, 5) are operable to pass through the aperture in the bypass conduit; and a main sheath over the first and second introducers. first and second separately manipulable introducers (3, 5) for carrying a bypass conduit (80, 90) provided with first and second ends (83, 84; 93, 94) and an intermediate portion (82, 91), the bypass conduit being mountable onto the introducers in a substantially U shape with the first end and a first portion of the bypass conduit (80, 90) retained onto the first introducer and the second end and a second portion of the bypass conduit retained on the second introducer and the intermediate portion (82, 91) extending between the first and second introducers (3, 5), each of the first and second introducers (3, 5) including a splittable sheath (17, 31) co-axially therearound operable to contain the first and second portions (83, 84; 93, 94) of a bypass conduit on the first and second introducers (3, 5) respectively, each splittable sheath (17, 31) including an aperture (18, 32) for allowing the intermediate portion (82, 91) of a bypass conduit (80, 90) to extend between the first introducer and the second introducer through the respective apertures (18, 32) in the sheath, the bypass conduit including an aperture (87, 87a, 95) in the intermediate portion thereof; wherein the first and second introducers (3, 5) are operable to pass through the aperture in the bypass conduit; and a main sheath over the first and second introducers.
A method for mapping between an enhanced downlink control channel resource and an antenna port, comprising: establishing a mapping between each resource element carrying control data in an enhanced downlink control channel resource and an antenna port, characterised in that the enhanced downlink control channel resource comprises multiple PRB pairs, each of the multiple PRB pairs comprises multiple OFDM symbols in a time domain, each of the multiple OFDM symbols comprises multiple resource elements, and each of the multiple OFDM symbols corresponds to an OFDM symbol index, wherein resource elements carrying control data in odd-indexed OFDM symbols being mapped to a first antenna port, resource elements carrying control data in even-indexed OFDM symbols being mapped to a second antenna port; and sending, according to a reference signal corresponding to the antenna port, the control data carried by the resource element. establishing a mapping between each resource element carrying control data in an enhanced downlink control channel resource and an antenna port, characterised in that the enhanced downlink control channel resource comprises multiple PRB pairs, each of the multiple PRB pairs comprises multiple OFDM symbols in a time domain, each of the multiple OFDM symbols comprises multiple resource elements, and each of the multiple OFDM symbols corresponds to an OFDM symbol index, wherein resource elements carrying control data in odd-indexed OFDM symbols being mapped to a first antenna port, resource elements carrying control data in even-indexed OFDM symbols being mapped to a second antenna port; and sending, according to a reference signal corresponding to the antenna port, the control data carried by the resource element.
A packaging structure including: - at least one cover secured to at least one first substrate and forming at least first and second distinct cavities between the cover and the first substrate, - at least first and second channels made in the first substrate and/or in the cover and/or between the first substrate and the cover, such that the first channel includes a first end leading into the first cavity and a second end leading off the first cavity via at least one first hole made through the cover, and in that the second channel includes a first end leading into the second cavity and a second end leading off the second cavity via at least one second hole made through the cover, wherein a height H A of the first channel at its second end is lower than a height H B of the second channel at its second end, and wherein at least one first closing layer with a thickness E 1 higher than the height H A and lower than the height H B closes the first channel without closing the second channel, and wherein the second channel is closed, the atmospheres in the first and second cavities (110, 112) being different in terms of pressure and/or nature of gases. - at least one cover secured to at least one first substrate and forming at least first and second distinct cavities between the cover and the first substrate, - at least first and second channels made in the first substrate and/or in the cover and/or between the first substrate and the cover, such that the first channel includes a first end leading into the first cavity and a second end leading off the first cavity via at least one first hole made through the cover, and in that the second channel includes a first end leading into the second cavity and a second end leading off the second cavity via at least one second hole made through the cover,
A device for crushing or grinding grains or flakes having at least two rotationally-movable rollers (1; 2) drivable in opposite directions, wherein the rollers (1; 2) are arranged in a housing to form a grinding or crushing gap, so that a grinding or crushing mill results, wherein a funnel-shaped grinding material feed, which merges into an outlet contour, is formed above the grinding or crushing mill, characterized in that the rollers (1; 2) are fixedly arranged in relation to one another in their position on the installation side in such a way that the grinding or crushing gap has portions of different gap widths over its length and the funnel-shaped grinding material feed is displaceable over the length of the grinding or crushing gap to alternately feed grinding material to regions of different gap width.
A method of processing a process in a container, wherein the method is used in a physical machine, multiple containers are deployed in an application space in the physical machine, a watchdog drive is deployed in a kernel space in the physical machine, wherein the physical machine further comprises a device file in the application space, wherein the device file is a directory file that stores hardware device information and each container is able to access the kernel space using the device file, the method comprises: receiving, by the watchdog drive, a first operation instruction of a first container by using the device file, wherein the first operation instruction comprises a first process identification, PID, and the first PID represents that the first operation instruction is delivered by a first process in the first container; determining, according to the first PID, a first namespace corresponding to the first container; and deleting all processes in the first container according to the first namespace; wherein before the deleting all processes in the first container according to the first namespace, the method further comprises: establishing, according to the first namespace, a first watchdog instance corresponding to the first container in a one-to-one correspondence manner such that upon receiving an initial operation instruction from any individual container after the individual container is started or restarted a corresponding watchdog instance comprising its own timer is established for monitoring said individual container, wherein the first watchdog instance is used to delete all the processes in the first container, and the first watchdog instance comprises a first timer. receiving, by the watchdog drive, a first operation instruction of a first container by using the device file, wherein the first operation instruction comprises a first process identification, PID, and the first PID represents that the first operation instruction is delivered by a first process in the first container; determining, according to the first PID, a first namespace corresponding to the first container; and deleting all processes in the first container according to the first namespace; wherein before the deleting all processes in the first container according to the first namespace, the method further comprises: establishing, according to the first namespace, a first watchdog instance corresponding to the first container in a one-to-one correspondence manner such that upon receiving an initial operation instruction from any individual container after the individual container is started or restarted a corresponding watchdog instance comprising its own timer is established for monitoring said individual container, wherein the first watchdog instance is used to delete all the processes in the first container, and the first watchdog instance comprises a first timer.
A control device for a vehicle alternator, comprising: an alternator connected to a battery mounted in a vehicle; a regulator including a regulator IC for adjusting the power generation voltage of the alternator; and an electronic control unit connected to the regulator; wherein the regulator IC comprises: a power transistor for performing ON/OFF control of a field current of the alternator; a counter for measuring the ON time of a DF signal as a counter value, the counter value being cleared to 0 by a reset signal, and the DF signal directly indicating an ON/OFF condition of the power transistor; a timer for generating a sampling signal and the reset signal in a predetermined sampling time; an averaging circuit for performing an averaging process on the counter value in response to the sampling signal; and a storage circuit for storing the average value calculated by the averaging circuit; wherein an average value obtained by performing the averaging process on the counter value measured during the predetermined sampling time is used as ON ratio information of the DF signal inputted from the regulator to the electronic control unit. an alternator connected to a battery mounted in a vehicle; a regulator including a regulator IC for adjusting the power generation voltage of the alternator; and an electronic control unit connected to the regulator; wherein the regulator IC comprises: a power transistor for performing ON/OFF control of a field current of the alternator; a counter for measuring the ON time of a DF signal as a counter value, the counter value being cleared to 0 by a reset signal, and the DF signal directly indicating an ON/OFF condition of the power transistor; a timer for generating a sampling signal and the reset signal in a predetermined sampling time; an averaging circuit for performing an averaging process on the counter value in response to the sampling signal; and a storage circuit for storing the average value calculated by the averaging circuit; wherein an average value obtained by performing the averaging process on the counter value measured during the predetermined sampling time is used as ON ratio information of the DF signal inputted from the regulator to the electronic control unit. a power transistor for performing ON/OFF control of a field current of the alternator; a counter for measuring the ON time of a DF signal as a counter value, the counter value being cleared to 0 by a reset signal, and the DF signal directly indicating an ON/OFF condition of the power transistor; a timer for generating a sampling signal and the reset signal in a predetermined sampling time; an averaging circuit for performing an averaging process on the counter value in response to the sampling signal; and a storage circuit for storing the average value calculated by the averaging circuit; wherein an average value obtained by performing the averaging process on the counter value measured during the predetermined sampling time is used as ON ratio information of the DF signal inputted from the regulator to the electronic control unit.