mhurhangee/ep-ind-claims huggingface dataset:
A communication system for an automatic guided vehicle arranged to transport a container in a harbor, comprising: the automatic guided vehicle, having a plurality of control devices mounted on the automatic guided vehicle and each arranged to perform a specific function of the automatic guided vehicle; a short-range communication device mounted on the automatic guided vehicle, and configured to send and receive information related to the plurality of control devices enabling to retrieve a state of each one of the plurality of control devices; a terminal connectable with the short-range communication device; a traffic control tower arranged to send wirelessly a command to the automatic guided vehicle, so that the automatic guided vehicle travels on a preset travel route; wherein the automatic guided vehicle has a plurality of pieces of identification information readable by the terminal, each being linked to its associated one of the plurality of control devices, and the terminal is communicable with the short-range communication device based on the identification information when read by the terminal, and it is configured to retrieve state information of a control device based on the read identification information and the terminal is arranged to use the information of each of the control devices to which the identification information is linked, at a timing at which maintenance and inspection is performed. the automatic guided vehicle, having a plurality of control devices mounted on the automatic guided vehicle and each arranged to perform a specific function of the automatic guided vehicle; a short-range communication device mounted on the automatic guided vehicle, and configured to send and receive information related to the plurality of control devices enabling to retrieve a state of each one of the plurality of control devices; a terminal connectable with the short-range communication device; a traffic control tower arranged to send wirelessly a command to the automatic guided vehicle, so that the automatic guided vehicle travels on a preset travel route; wherein the automatic guided vehicle has a plurality of pieces of identification information readable by the terminal, each being linked to its associated one of the plurality of control devices, and the terminal is communicable with the short-range communication device based on the identification information when read by the terminal, and it is configured to retrieve state information of a control device based on the read identification information and the terminal is arranged to use the information of each of the control devices to which the identification information is linked, at a timing at which maintenance and inspection is performed.
A protective housing for an electronic device having a touch-sensitive display, the protective housing comprising: a bottom member to house at least a first portion of the electronic device; a top member to house at least a second portion of the electronic device, wherein the top member has an inner edge to frame at least a portion of the touch-sensitive display to allow touch access to the portion of the touch-sensitive display, and in that the protective housing further comprises a coupling mechanism (26,10b,11,13a,13b,27,37) to couple the top member with the bottom member to form the housing to house the first and second portions of the electronic device, wherein the coupling mechanism includes a first seal (10b, 15b) between the bottom member and the top member, and wherein the top member includes a second seal (10a,15a) between an inner edge of the top member and a region proximate at least the portion of the touch-sensitive display, and characterized in that when the top member is coupled with the bottom member to form the housing, the first seal seals the top member with the bottom member to generate a first water resistant seal between an outer periphery of the top member and the bottom member, and the second seal seals the inner edge of the top member with the region proximate at least the portion of the touch-sensitive display to generate a second water resistant seal between the inner edge of the top member and the region proximate at least the portion of the touch-sensitive display. a bottom member to house at least a first portion of the electronic device; a top member to house at least a second portion of the electronic device, wherein the top member has an inner edge to frame at least a portion of the touch-sensitive display to allow touch access to the portion of the touch-sensitive display, and in that the protective housing further comprises a coupling mechanism (26,10b,11,13a,13b,27,37) to couple the top member with the bottom member to form the housing to house the first and second portions of the electronic device, wherein the coupling mechanism includes a first seal (10b, 15b) between the bottom member and the top member, and wherein the top member includes a second seal (10a,15a) between an inner edge of the top member and a region proximate at least the portion of the touch-sensitive display, and characterized in that when the top member is coupled with the bottom member to form the housing, the first seal seals the top member with the bottom member to generate a first water resistant seal between an outer periphery of the top member and the bottom member, and the second seal seals the inner edge of the top member with the region proximate at least the portion of the touch-sensitive display to generate a second water resistant seal between the inner edge of the top member and the region proximate at least the portion of the touch-sensitive display.
A structural component, in particular of a modular system, for use in storage or bundling or transport systems or construction installations, which is of plate-shaped or shell-shaped design and comprises at least three sides, wherein at least two sides are provided with a coupling unit for structurally connecting the structural component to a further component, and wherein the coupling unit comprises at least one first locking element and at least one correspondingly designed second locking element, characterized in that for connecting the structural component to the further component, the first and the second locking element (20, 22) are displaceable relative to one another from a release position into a first locking position upon moving the first or the second locking element (20, 22) in a first locking direction and from the release position into a second locking position upon moving the first or second locking element (20, 22) in a second locking direction.
Device for carrying out therapeutic and/or cosmetic treatment of warts, or raised tissue abnormalities rising above the skin surface of a living being, with a one-piece and single-ply sheetlike construct, which has an upper side, a lower side and an opening formed by edge regions, characterized in that the device consists of a self-supporting film of flexible plastic, natural rubber, a thermoplastic or an elastomer and the opening is constructed as a slot, wherein the construct is constructed without an opening outside the region of opening.
Assembly device for simultaneously inserting a plurality of copper bars into receiving grooves of a rotor element and/or of a stator element of an electric machine in an axial direction A, comprising a component receiving element for receiving the rotor element and/or the stator element, an aligning unit for receiving the copper bars to be inserted into the rotor element and/or the stator element and for aligning the copper bars to be inserted with respect to the rotor element and/or the stator element and two pusher elements (16 1, 16 2), which can be moved in the axial direction A and by way of which the copper bars can be contacted at opposite axial ends in order to simultaneously insert the copper bars from the aligning unit into the receiving grooves of the rotor element and/or the stator element by way of the pusher elements (16 1, 16 2) making contact at the opposite axial ends.
Method for segmenting a 3D image data record that presents the following steps: a) Providing a 3D image data record to be segmented of a body structure and a generic model of the body structure; b) Producing synthetic 2D image data records from the 3D image data records provided under a) of the body structure by projection; and c) Pre-positioning of the generic model in relation to the 3D image data record of the body structure provided under a); and d) Reducing the 3D image data record by means of the generic model by cutting out a part of the 3D image data record of the body structure, in which the part mainly comprises the body structure to be segmented, and producing new 2D image data records for the reduced 3D image data record; and e) producing a 3D-model of the body structure by adapting the generic model to the synthetic 2D image data records of the body structure generated in step d). a) Providing a 3D image data record to be segmented of a body structure and a generic model of the body structure; b) Producing synthetic 2D image data records from the 3D image data records provided under a) of the body structure by projection; and c) Pre-positioning of the generic model in relation to the 3D image data record of the body structure provided under a); and d) Reducing the 3D image data record by means of the generic model by cutting out a part of the 3D image data record of the body structure, in which the part mainly comprises the body structure to be segmented, and producing new 2D image data records for the reduced 3D image data record; and e) producing a 3D-model of the body structure by adapting the generic model to the synthetic 2D image data records of the body structure generated in step d).
An ejection device for a mold used to produce a molded part in a molding cavity intended to allow the ejection of the molded part outside said molding cavity, said device comprising: - a pushing device translatable along a first axis between a retracted position and an ejection position, - at least one ejection element translatable along a second axis, different from the first axis, between a retracted position and an ejection position, - at least one transfer device connecting the pushing device and the ejection element, said transfer device being arranged to move the ejection element along the second axis between its retracted position and its ejection position when the pushing device is moved along the first axis between its retracted position and its ejection position, characterized in that the transfer device comprises at least two links, translatable relative to one another and relative to the pushing device and the ejection element. - a pushing device translatable along a first axis between a retracted position and an ejection position, - at least one ejection element translatable along a second axis, different from the first axis, between a retracted position and an ejection position, - at least one transfer device connecting the pushing device and the ejection element, said transfer device being arranged to move the ejection element along the second axis between its retracted position and its ejection position when the pushing device is moved along the first axis between its retracted position and its ejection position,
A method for wireless communications, comprising: determining (705, 805, 905) a synchronization cycle that comprises one or more device-to-device, D2D, synchronization signals (205-a) transmitted on a periodic schedule from a D2D source; determining (710, 810, 910) a monitoring period based at least in part on a start time for at least two sequential transmissions of the D2D synchronization signals (205-a) occurring during the synchronization cycle based at least in part on the periodic schedule, wherein a duration of the synchronization cycle comprises a plurality of monitoring periods; determining (715, 815, 915), based at least in part on a duration of the monitoring period, a plurality of sub-monitoring periods, wherein a cumulative duration of the plurality of sub-monitoring periods is the same as the duration of the monitoring period; and monitoring, based at least in part on the plurality of sub-monitoring periods, for at least one of the one or more D2D synchronization signals (205-a). determining (705, 805, 905) a synchronization cycle that comprises one or more device-to-device, D2D, synchronization signals (205-a) transmitted on a periodic schedule from a D2D source; determining (710, 810, 910) a monitoring period based at least in part on a start time for at least two sequential transmissions of the D2D synchronization signals (205-a) occurring during the synchronization cycle based at least in part on the periodic schedule, wherein a duration of the synchronization cycle comprises a plurality of monitoring periods; determining (715, 815, 915), based at least in part on a duration of the monitoring period, a plurality of sub-monitoring periods, wherein a cumulative duration of the plurality of sub-monitoring periods is the same as the duration of the monitoring period; and monitoring, based at least in part on the plurality of sub-monitoring periods, for at least one of the one or more D2D synchronization signals (205-a).
An electronic system comprising: a supply conductor configured to route a supply voltage having a nominal voltage level; and a plurality of semiconductor dies (1a, 1b, 1n) each configured to receive the supply voltage from the supply conductor, wherein each of the plurality of semiconductor dies (1a, 1b, 1n) comprises: a supply sensing circuit (12a, 12b, 12n) configured to generate a sense signal based on a local voltage level of the supply voltage; a bias control circuit (13a, 13b, 13n) configured to adjust a bias signal based on the sense signal to account for a difference between the nominal voltage level and the local voltage level of the supply voltage; and a signal processing circuit (11a, 11b, 11n) biased by the bias signal, wherein the signal processing circuit (11a, 11b, 11n) includes a radio frequency, RF, amplifier having a DC operating point set by the bias signal, the RF amplifier being configured to amplify an RF signal based at least in part on the bias signal. a supply conductor configured to route a supply voltage having a nominal voltage level; and a plurality of semiconductor dies (1a, 1b, 1n) each configured to receive the supply voltage from the supply conductor, wherein each of the plurality of semiconductor dies (1a, 1b, 1n) comprises: a supply sensing circuit (12a, 12b, 12n) configured to generate a sense signal based on a local voltage level of the supply voltage; a bias control circuit (13a, 13b, 13n) configured to adjust a bias signal based on the sense signal to account for a difference between the nominal voltage level and the local voltage level of the supply voltage; and a signal processing circuit (11a, 11b, 11n) biased by the bias signal, wherein the signal processing circuit (11a, 11b, 11n) includes a radio frequency, RF, amplifier having a DC operating point set by the bias signal, the RF amplifier being configured to amplify an RF signal based at least in part on the bias signal. a supply sensing circuit (12a, 12b, 12n) configured to generate a sense signal based on a local voltage level of the supply voltage; a bias control circuit (13a, 13b, 13n) configured to adjust a bias signal based on the sense signal to account for a difference between the nominal voltage level and the local voltage level of the supply voltage; and a signal processing circuit (11a, 11b, 11n) biased by the bias signal, wherein the signal processing circuit (11a, 11b, 11n) includes a radio frequency, RF, amplifier having a DC operating point set by the bias signal, the RF amplifier being configured to amplify an RF signal based at least in part on the bias signal.
A process for producing glutathione or γ-glutamylcysteine, comprising culturing in a medium a microorganism belonging to the species Escherichia coli with a higher activity of one or more proteins having an activity to transport intracellular glutathione to the outside of cells (hereinafter referred to as glutathione transporting activity), described in any of and: a protein having the amino acid sequence shown by SEQ ID NO:3, a protein having an amino acid sequence having 80% or more homology to the amino acid sequence shown by SEQ ID NO:3 and having glutathione transporting activity wherein said higher glutathione transporting activity is obtained by (a) transforming the parent strain with a DNA that encodes said protein having glutathione transporting activity; and a higher activity of one or more proteins involved in glutathione or γ-glutamylcysteine biosynthesis, compared with that of the parent strain, wherein the proteins involved in glutathione biosynthesis are γ-glutamylcysteine synthetase (GSHI) and glutathione synthetase (GSHII) and wherein the protein involved in γ-glutamylcysteine biosynthesis is γ-glutamylcysteine synthetase (GSHI), wherein said higher activity of one or more proteins involved in glutathione or γ-glutamylcysteine biosynthesis is obtained by (a') transforming the parent strain with a DNA that encodes said protein involved in glutathione or γ-glutamylcysteine biosynthesis; and forming and accumulating glutathione or γ-glutamylcysteine in the medium, and recovering the glutathione or γ-glutamylcysteine from the culture. a protein having the amino acid sequence shown by SEQ ID NO:3, a protein having an amino acid sequence having 80% or more homology to the amino acid sequence shown by SEQ ID NO:3 and having glutathione transporting activity wherein said higher glutathione transporting activity is obtained by (a) transforming the parent strain with a DNA that encodes said protein having glutathione transporting activity; and a higher activity of one or more proteins involved in glutathione or γ-glutamylcysteine biosynthesis, compared with that of the parent strain, wherein the proteins involved in glutathione biosynthesis are γ-glutamylcysteine synthetase (GSHI) and glutathione synthetase (GSHII) and wherein the protein involved in γ-glutamylcysteine biosynthesis is γ-glutamylcysteine synthetase (GSHI), wherein said higher activity of one or more proteins involved in glutathione or γ-glutamylcysteine biosynthesis is obtained by (a') transforming the parent strain with a DNA that encodes said protein involved in glutathione or γ-glutamylcysteine biosynthesis; and forming and accumulating glutathione or γ-glutamylcysteine in the medium, and recovering the glutathione or γ-glutamylcysteine from the culture. (a') transforming the parent strain with a DNA that encodes said protein involved in glutathione or γ-glutamylcysteine biosynthesis; and
A drive for a moveable part in a vehicle, referred to in the following as moving part, such as a moveable camera on a vehicle, with a motor to move (13.1, 13.2) a carrier of a control cam, which features two consecutive control points with different functions, whereby, the structural unit, comprising of a carrier and control cam, is referred to in the following as cam carrier, the motor of the cam carrier moves synchronous to the moving part, with a sensor that continuously interrogates the course of the control cam when the cam carrier moves (13.1, 13.2), with a control device that evaluates the signal coming from the sensor and then switches off the motor when the sensor is at the first control point of the control cam, which then functions as switch-off points (14.1, 14.2) for the motor, and, with a minimum of one defined end position (51, 52) of the moving part, in which the cam carrier is located at a specified end position (10.1, 10.2) in relation to the sensor, characterized in that, that - when the sensor is at the switch-off point (14.1) of the cam carrier - the motor does not actually remain stationary but, due to signals from the control device, continues to selectively move further up to the end position (10.1, 10.2) of the cam carrier, whereby, the signals feature switch-off pulses (24.1, 24.3) and end signals (28.1, 28.2), that, in this end position (10.1, 10.2), the sensor is located at the second control point of the cam carrier, namely the control point (18.1, 18.2), that the position of the control point (18.1, 18.2) is determined by a defined end position (51, 52) of the moving part and independent from all operating conditions of the drive, because - when the sensor interrogates an end section (27.1, 27.2) of the cam carrier between its switch-off point (14.1, 14.2) and control point (18.1, 18.2) - the motor is readjusted to the suitable metering by the control device.
A method for forming an oxide layer on a semiconductor substrate, the method comprising: generating a plasma adjacent to at least one surface of the substrate, wherein the plasma is generated via microwaves from a gas or a mixture of gases containing oxygen, wherein the microwaves are coupled into the gas, which is contained in a process chamber, by at least one magnetron via at least one microwave rod arranged opposite to the substrate, the microwave rod comprising an outer conductor and an inner conductor; setting the following process conditions: mean microwave power density in [W/cm 2] to P = 0,8 - 10 W/cm 2; plasma duration in [s] to t = 0.1 - 600 s; process chamber pressure in [Pa] to p = 2.67 - 266.64 Pa (20 - 2000 mTorr); distance between substrate surface and microware rod in [mm] to d= 5 - 120 mm, wherein the above and optionally further process conditions are set for an oxide growth of <4.5 nm at a substrate temperature of T <200°C such that the following equation is fulfilled: P A · t B · p C · exp − d − d 0 / λ < K, wherein the parameters of the equation are defined as follows: d 0 is a distance offset in [mm] in the range of 0 - 30 mm, λ is a characteristic length in [mm] in the range of 30 - 120 mm, A, B and C are choosable coefficients in the range of A = 0.8 - 1.5; B = 0.5 - 1.3; C = -1 - -0.3, and K is a constant in the range of 11 - 4. generating a plasma adjacent to at least one surface of the substrate, wherein the plasma is generated via microwaves from a gas or a mixture of gases containing oxygen, wherein the microwaves are coupled into the gas, which is contained in a process chamber, by at least one magnetron via at least one microwave rod arranged opposite to the substrate, the microwave rod comprising an outer conductor and an inner conductor; setting the following process conditions: mean microwave power density in [W/cm 2] to P = 0,8 - 10 W/cm 2; plasma duration in [s] to t = 0.1 - 600 s; process chamber pressure in [Pa] to p = 2.67 - 266.64 Pa (20 - 2000 mTorr); distance between substrate surface and microware rod in [mm] to d= 5 - 120 mm, wherein the above and optionally further process conditions are set for an oxide growth of <4.5 nm at a substrate temperature of T <200°C such that the following equation is fulfilled: P A · t B · p C · exp − d − d 0 / λ < K, wherein the parameters of the equation are defined as follows: d 0 is a distance offset in [mm] in the range of 0 - 30 mm, λ is a characteristic length in [mm] in the range of 30 - 120 mm, A, B and C are choosable coefficients in the range of A = 0.8 - 1.5; B = 0.5 - 1.3; C = -1 - -0.3, and K is a constant in the range of 11 - 4. d 0 is a distance offset in [mm] in the range of 0 - 30 mm, λ is a characteristic length in [mm] in the range of 30 - 120 mm, A, B and C are choosable coefficients in the range of A = 0.8 - 1.5; B = 0.5 - 1.3; C = -1 - -0.3, and K is a constant in the range of 11 - 4.
An intra-cardiac medical device adapted to enhance intra-cardiac blood circulation of a heart of a patient by assisting left ventricular pump action, said device characterised by having a blood displacement unit adapted to circulate blood from the left ventricle to the aortic valve by displacement of blood in the left atrium and/or left ventricle towards an apex of the heart and/or to said aortic valve by moving a mitral valve during systole towards and/or during diastole away from said apex of the heart, thus assisting left ventricular pump action.