mhurhangee/ep-ind-claims huggingface dataset:
A method of micro-drilling a moving web comprising: providing a laser system for production of a laser beam having a wavelength in the range of 2 to 6 microns; steering a focal point of the laser beam on a surface of the moving web concurrently with moving the web and producing one or more holes in the moving web wherein the moving web has a thickness of 20 to 150 μm, whereby the laser is pulsed at a duration of 1 μsec to 750 μsec producing holes having a diameter in the range of 95μm or less; and moving the web while producing the holes. providing a laser system for production of a laser beam having a wavelength in the range of 2 to 6 microns; steering a focal point of the laser beam on a surface of the moving web concurrently with moving the web and producing one or more holes in the moving web wherein the moving web has a thickness of 20 to 150 μm, whereby the laser is pulsed at a duration of 1 μsec to 750 μsec producing holes having a diameter in the range of 95μm or less; and moving the web while producing the holes.
A cooking appliance comprising: a cooktop including a plurality of separately controlled cooking areas, a plurality of heating elements (50, 52, 54) positioned below one of the separately controlled cooking areas, the plurality of heating elements including a first heating element, a second X heating element, and a third heating element, and an electronic controller electrically coupled to the plurality of heating elements (50, 52, 54), the controller comprising a processor, characterized in that the electronic controller further comprises a memory device electrically coupled to the processor, the memory device having stored therein a plurality of instructions which, when executed by the processor, cause the processor to: (a) energize each of the plurality of heating elements (50, 52, 54) at a maximum power level for a predetermined time interval, (b) maintain the second heating element at the maximum power level after the predetermined time interval has elapsed, and (c) alternately energize the first heating element and the third heating element at the maximum power level after the predetermined time interval has elapsed such that the first heating element and the third heating element are not energized concurrently. a cooktop including a plurality of separately controlled cooking areas, a plurality of heating elements (50, 52, 54) positioned below one of the separately controlled cooking areas, the plurality of heating elements including a first heating element, a second X heating element, and a third heating element, and an electronic controller electrically coupled to the plurality of heating elements (50, 52, 54), the controller comprising a processor, (a) energize each of the plurality of heating elements (50, 52, 54) at a maximum power level for a predetermined time interval, (b) maintain the second heating element at the maximum power level after the predetermined time interval has elapsed, and (c) alternately energize the first heating element and the third heating element at the maximum power level after the predetermined time interval has elapsed such that the first heating element and the third heating element are not energized concurrently.
A biologically active peptide, wherein said peptide is selected from: (a) fragments consisting of amino acids 1-21, 1-20, 1-19, 1-18, 1-17, 1-16, 1-15, 1-14, 1-13, 1-12, or 1-11 of X 01 ValX 02 GluIleGlnLeuX 03 HisX 04 X 05 X 06 X 07 X 08 Leu X 09 Ser X 10 X 11 ArgX 12 X 13 TrpLeuArgLysLysLeuGlnAspValHisAsnX 14 (SEQ ID NO. 19); and (b) pharmaceutically acceptable salts thereof; wherein: X 01 is Aib, desaminoGly, desaminoSer, or desaminoAla; X 02 is Aib, Ala, or Ser; X 03 is Met; X 04 is Ala, Gln, or Asn; X 05 is Arg, Har, or Leu; X 06 is Aib, Ala, or Gly; X 07 is Aib or Lys; X 08 is Aib, Trp, or His; X 09 is Ala or Asn; X 10 is Met or Val; X 11 is Arg or Glu; X 12 is Met or Val; X 13 is Gln or Glu; and X 14 is Tyr or Phe; wherein at least one of X 01, X 02, X 06, X 07, and X 08 is Aib. (a) fragments consisting of amino acids 1-21, 1-20, 1-19, 1-18, 1-17, 1-16, 1-15, 1-14, 1-13, 1-12, or 1-11 of X 01 ValX 02 GluIleGlnLeuX 03 HisX 04 X 05 X 06 X 07 X 08 Leu X 09 Ser X 10 X 11 ArgX 12 X 13 TrpLeuArgLysLysLeuGlnAspValHisAsnX 14 (SEQ ID NO. 19); and (b) pharmaceutically acceptable salts thereof; X 01 is Aib, desaminoGly, desaminoSer, or desaminoAla; X 02 is Aib, Ala, or Ser; X 03 is Met; X 04 is Ala, Gln, or Asn; X 05 is Arg, Har, or Leu; X 06 is Aib, Ala, or Gly; X 07 is Aib or Lys; X 08 is Aib, Trp, or His; X 09 is Ala or Asn; X 10 is Met or Val; X 11 is Arg or Glu; X 12 is Met or Val; X 13 is Gln or Glu; and X 14 is Tyr or Phe;
A low dropout device with limiting startup inrush current, the device comprising: - an error amplifier; - a pass transistor coupled to said error amplifier; - a feedback network electrically connected to said pass transistor wherein an output of said feedback network is electrically coupled to an input of said error amplifier; and characterised by comprising: - a current limit control network, having a first input electrically connected to an output of said pass transistor (VOUT) and a second input electrically connected to an output of said error amplifier and having an output coupled to the error amplifier whereby said output of the current limit control network is coupled to the error amplifier to provide a current control signal to said error amplifier; and the error amplifier is configured to control the gate voltage of the pass transistor, such as to limit the current flow through the pass transistor; - a Bypass mode current control limit comparator having a first input connected to a supply voltage and a second input connected to the output of said pass transistor; - a Low Dropout mode current control limit comparator having a first input connected to a reference voltage and having a second input connected to said output of said feedback network; and - a Low Dropout mode / Bypass mode select network having a first input connected to said output of said Low Dropout mode current control limit comparator, and a second input connected to an output of said Bypass mode current control limit comparator, and having an output coupled to said current limit control network. - an error amplifier; - a pass transistor coupled to said error amplifier; - a feedback network electrically connected to said pass transistor wherein an output of said feedback network is electrically coupled to an input of said error amplifier; and characterised by comprising: - a current limit control network, having a first input electrically connected to an output of said pass transistor (VOUT) and a second input electrically connected to an output of said error amplifier and having an output coupled to the error amplifier whereby said output of the current limit control network is coupled to the error amplifier to provide a current control signal to said error amplifier; and the error amplifier is configured to control the gate voltage of the pass transistor, such as to limit the current flow through the pass transistor; - a Bypass mode current control limit comparator having a first input connected to a supply voltage and a second input connected to the output of said pass transistor; - a Low Dropout mode current control limit comparator having a first input connected to a reference voltage and having a second input connected to said output of said feedback network; and - a Low Dropout mode / Bypass mode select network having a first input connected to said output of said Low Dropout mode current control limit comparator, and a second input connected to an output of said Bypass mode current control limit comparator, and having an output coupled to said current limit control network.
Apparatus configured to assist a rescuer in performing chest compressions during cardio-pulmonary resuscitation on a victim, the apparatus comprising: a pad or other structure configured to be applied to the chest near or at the location at which the rescuer applies force to produce the chest compressions; at least one motion sensor connected to the pad, the motion sensor being configured to sense movement of the chest; at least one force sensor connected to the pad, the force sensor being configured to sense force applied to the chest; characterized by processing circuitry configured to process the output of the motion sensor and force sensor to estimate the compliance of the chest, and at least one prompting element connected to the processing circuitry configured to provide the rescuer with information as to whether the chest is being substantially released following chest compressions, wherein the apparatus is configured to use the determined chest compliance to adjust the level of pressure or force that a rescuer is permitted to apply at the end of a compression stroke without being prompted, by the prompting element, as to insufficiently releasing the chest. a pad or other structure configured to be applied to the chest near or at the location at which the rescuer applies force to produce the chest compressions; at least one motion sensor connected to the pad, the motion sensor being configured to sense movement of the chest; at least one force sensor connected to the pad, the force sensor being configured to sense force applied to the chest; characterized by processing circuitry configured to process the output of the motion sensor and force sensor to estimate the compliance of the chest, and at least one prompting element connected to the processing circuitry configured to provide the rescuer with information as to whether the chest is being substantially released following chest compressions, wherein the apparatus is configured to use the determined chest compliance to adjust the level of pressure or force that a rescuer is permitted to apply at the end of a compression stroke without being prompted, by the prompting element, as to insufficiently releasing the chest.
A product (10, 110, 210) that includes: a container (12, 112, 212) including a neck (24, 24', 124, 224); and a tamper-evidencing component (11, 11', 111, 211) separate from the container and carried by the neck of the container in direct contact with a corresponding portion of the container neck, characterized in that the tamper-evidencing component is composed of material that has higher thermal conductivity than that of a material of the container so as to concentrate heat in the corresponding portion of the container neck, wherein the container neck is thermally responsive to application of heat pursuant to tampering with the product by at least one of the following responses: an irreversible change in visual appearance of the corresponding portion of the container neck corresponding to the ring, or fracture of the container neck at the corresponding portion of the container neck. a container (12, 112, 212) including a neck (24, 24', 124, 224); and a tamper-evidencing component (11, 11', 111, 211) separate from the container and carried by the neck of the container in direct contact with a corresponding portion of the container neck, characterized in that the tamper-evidencing component is composed of material that has higher thermal conductivity than that of a material of the container so as to concentrate heat in the corresponding portion of the container neck, wherein the container neck is thermally responsive to application of heat pursuant to tampering with the product by at least one of the following responses: an irreversible change in visual appearance of the corresponding portion of the container neck corresponding to the ring, or fracture of the container neck at the corresponding portion of the container neck.
A process for preparing a compound of formula IV or V wherein R 1 is a protecting group which comprises the following steps: a) converting a compound of formula I' wherein R 2 and R 3 are independently selected from C 1 -C 4 -alkyl or together form a cyclic structure of formula (CH 2) n wherein n is from 2 to 6, into a compound of formula II wherein R 2 and R 3 are defined as above; b) subsequently converting said compound obtained in step (a) into a compound of formula III wherein R 1 is a protecting group, R 2 and R 3 are defined as above, and c) subsequently cleaving the acetal-compound of formula III obtained in step (b). a) converting a compound of formula I' wherein R 2 and R 3 are independently selected from C 1 -C 4 -alkyl or together form a cyclic structure of formula (CH 2) n wherein n is from 2 to 6, into a compound of formula II wherein R 2 and R 3 are defined as above; b) subsequently converting said compound obtained in step (a) into a compound of formula III wherein R 1 is a protecting group, R 2 and R 3 are defined as above, and c) subsequently cleaving the acetal-compound of formula III obtained in step (b).
A portable lock, in particular for two-wheelers, comprising a lock body extending along a longitudinal axis and a flexible hoop, wherein a first end of the hoop is permanently fastened to the lock body and a free second end of the hoop can be selectively introduced into the lock body or detached from the lock body, wherein the lock body receives a replaceable door cylinder which has a cylinder housing, a cylinder core and a closing nose, wherein the cylinder core is rotatably supported in the cylinder housing, is rotationally fixedly connected to the closing nose and is rotatable about an axis of rotation by means of an associated key between a release rotational position and a locking rotational position, and wherein a latch element is arranged within the lock body and can be moved by a rotation of the closing nose between a release position, in which the second end of the hoop introduced into the lock body can be detached from the lock body, and a locking position, in which the second end of the hoop introduced into the lock body is locked in the lock body, wherein the latch element can be driven by a rotation of the closing nose, characterized in that the latch element is preloaded towards the release position. comprising a lock body extending along a longitudinal axis and a flexible hoop, wherein a first end of the hoop is permanently fastened to the lock body and a free second end of the hoop can be selectively introduced into the lock body or detached from the lock body, wherein the lock body receives a replaceable door cylinder which has a cylinder housing, a cylinder core and a closing nose, wherein the cylinder core is rotatably supported in the cylinder housing, is rotationally fixedly connected to the closing nose and is rotatable about an axis of rotation by means of an associated key between a release rotational position and a locking rotational position, and wherein a latch element is arranged within the lock body and can be moved by a rotation of the closing nose between a release position, in which the second end of the hoop introduced into the lock body can be detached from the lock body, and a locking position, in which the second end of the hoop introduced into the lock body is locked in the lock body, wherein the latch element can be driven by a rotation of the closing nose, characterized in that the latch element is preloaded towards the release position.
Apparatus with flow-through capacitors for the purification of a liquid, such apparatus comprising: - at least one cell which is provided with at least one flow-through capacitor provided with two or more electrodes facing each other, between which a liquid to be treated containing ionized particles is susceptible to flow; - electrical power supply means adapted to supply a direct supply voltage (V A); - a modulation circuit electrically connected in input to said electrical power supply means in order to receive said supply voltage (V A), electrically connected in output to said capacitor and provided with at least one switch (22', 22", 23', 23") actuatable to apply at least one operating voltage between facing electrodes of said capacitor; said apparatus being characterized in that it further comprises a control circuit connected to said at least one switch (22', 22", 23', 23") and provided with a control module with pulse width modulation, which drives the switching of said at least one switch (22', 22", 23', 23") power supplying said facing electrodes by means of at least one pulsed voltage having average value proportional to said operating voltage. - at least one cell which is provided with at least one flow-through capacitor provided with two or more electrodes facing each other, between which a liquid to be treated containing ionized particles is susceptible to flow; - electrical power supply means adapted to supply a direct supply voltage (V A); - a modulation circuit electrically connected in input to said electrical power supply means in order to receive said supply voltage (V A), electrically connected in output to said capacitor and provided with at least one switch (22', 22", 23', 23") actuatable to apply at least one operating voltage between facing electrodes of said capacitor;
Device for the decontamination of a material, for decontaminating, in particular, an aircraft such as a military helicopter, the device comprising - a protective cover that can be adapted to the shape of the material, able to form a fluidtight decontamination tunnel around said material, - at least one decontamination module, able to eliminate the contamination from the material arranged inside the tunnel formed by the protective cover, - a hot air-blowing module able to be arranged at the entrance to the tunnel formed by the protective cover in order to dispatch hot air into said tunnel, and - a filtration module able to be positioned at the exit from the tunnel formed by the protective cover in order to destroy contaminated air vapors and/or to recover the decontaminant at the exit from said tunnel, characterized in that the decontamination module is a suctioning module, able to be positioned under, or at the outside of, the tunnel formed by the protective cover to suction the contaminated particles on the material, and characterized in that the hot air-blowing module constitutes the decontamination module, or one of the decontamination modules, by moving hot air inside the tunnel formed by the protective cover making it possible to remove the contaminated particles from the walls or from the inside of the material. - a protective cover that can be adapted to the shape of the material, able to form a fluidtight decontamination tunnel around said material, - at least one decontamination module, able to eliminate the contamination from the material arranged inside the tunnel formed by the protective cover, - a hot air-blowing module able to be arranged at the entrance to the tunnel formed by the protective cover in order to dispatch hot air into said tunnel, and - a filtration module able to be positioned at the exit from the tunnel formed by the protective cover in order to destroy contaminated air vapors and/or to recover the decontaminant at the exit from said tunnel, characterized in that the decontamination module is a suctioning module, able to be positioned under, or at the outside of, the tunnel formed by the protective cover to suction the contaminated particles on the material, and characterized in that the hot air-blowing module constitutes the decontamination module, or one of the decontamination modules, by moving hot air inside the tunnel formed by the protective cover making it possible to remove the contaminated particles from the walls or from the inside of the material.
A sheet stacking apparatus comprising: a sheet stacking portion on which a sheet is stacked; a sheet conveying portion which conveys the sheet onto the sheet stacking portion; first aligning means moveable along a sheet conveying direction of the sheet conveying portion to align the position in the sheet conveying direction of a sheet stacked on the sheet stacking portion; and second aligning means (410, 420) moveable in a width direction crossing the sheet conveying direction to align the position in the width direction of the sheet stacked on the sheet stacking portion, and control means (960, 210), characterized in that the second aligning means aligns the sheet stacked on the sheet stacking portion, and the first aligning member aligns the sheet which has been aligned by the second aligning means, and the sheet conveying portion is controlled by the control means to convey a next sheet onto the sheet stacking portion while the first aligning member is moving to align the previous sheet. a sheet stacking portion on which a sheet is stacked; a sheet conveying portion which conveys the sheet onto the sheet stacking portion; first aligning means moveable along a sheet conveying direction of the sheet conveying portion to align the position in the sheet conveying direction of a sheet stacked on the sheet stacking portion; and second aligning means (410, 420) moveable in a width direction crossing the sheet conveying direction to align the position in the width direction of the sheet stacked on the sheet stacking portion, and control means (960, 210), characterized in that the second aligning means aligns the sheet stacked on the sheet stacking portion, and the first aligning member aligns the sheet which has been aligned by the second aligning means, and the sheet conveying portion is controlled by the control means to convey a next sheet onto the sheet stacking portion while the first aligning member is moving to align the previous sheet.
A transmission method, comprising: transmitting, by a network device, to a terminal device a resource configuration of a reference signal; transmitting, by the network device, to the terminal device over higher layer signaling state information configuration for a measurement report of the reference signal; transmitting, by the network device, to the terminal device downlink control information, DCI, wherein the DCI comprises a channel state information, CSI, request field indicating transmission of the reference signal to the terminal device, and triggering the terminal device to report a measurement result of the reference signal to the network device; transmitting, by the network device, the reference signal; and receiving, by the network device, from the terminal device the measurement result obtained according to the CSI request field and the state information configuration, the measurement report comprising at least one of state information: beam state information, BSI, and CSI; wherein the BSI comprises reference signal received power, RSRP, of the reference signal; and wherein the resource configuration includes information of a first resource, the first resource being one reference signal resource set of S first reference signal resource sets, and the S being an integer greater than or equal to 1. transmitting, by a network device, to a terminal device a resource configuration of a reference signal; transmitting, by the network device, to the terminal device over higher layer signaling state information configuration for a measurement report of the reference signal; transmitting, by the network device, to the terminal device downlink control information, DCI, wherein the DCI comprises a channel state information, CSI, request field indicating transmission of the reference signal to the terminal device, and triggering the terminal device to report a measurement result of the reference signal to the network device; transmitting, by the network device, the reference signal; and receiving, by the network device, from the terminal device the measurement result obtained according to the CSI request field and the state information configuration, the measurement report comprising at least one of state information: beam state information, BSI, and CSI; wherein the BSI comprises reference signal received power, RSRP, of the reference signal; and wherein the resource configuration includes information of a first resource, the first resource being one reference signal resource set of S first reference signal resource sets, and the S being an integer greater than or equal to 1.