mhurhangee/ep-ind-claims huggingface dataset:
Method for forming a thermal inkjet printhead, comprising the step of: providing a semiconductor wafer including an integrated electronic circuit and a section for forming a thermal actuator element, the integrated circuit comprising at least: a thermal insulating layer formed over a substrate; and a first metal layer formed over the thermal insulating layer; wherein the first metal layer extends into the section for forming the thermal actuator element; and characterized by further comprising the step of: etching the section for forming a thermal actuator element to the first metal layer such that the first metal layer is acting as an etch stop layer, and further by the step that the integrated electronic circuit is produced in a complementary metal oxide semiconductor, CMOS, foundry and the section for forming a thermal actuator element is produced in a micro-electromechanical system, MEMS, foundry. providing a semiconductor wafer including an integrated electronic circuit and a section for forming a thermal actuator element, the integrated circuit comprising at least: a thermal insulating layer formed over a substrate; and a first metal layer formed over the thermal insulating layer; a thermal insulating layer formed over a substrate; and a first metal layer formed over the thermal insulating layer; wherein the first metal layer extends into the section for forming the thermal actuator element; and characterized by further comprising the step of: etching the section for forming a thermal actuator element to the first metal layer such that the first metal layer is acting as an etch stop layer, and further by the step that the integrated electronic circuit is produced in a complementary metal oxide semiconductor, CMOS, foundry and the section for forming a thermal actuator element is produced in a micro-electromechanical system, MEMS, foundry. etching the section for forming a thermal actuator element to the first metal layer such that the first metal layer is acting as an etch stop layer, and further by the step that the integrated electronic circuit is produced in a complementary metal oxide semiconductor, CMOS, foundry and the section for forming a thermal actuator element is produced in a micro-electromechanical system, MEMS, foundry.
A method implemented by base station (300, 500) in a wireless communication network of synchronizing a periodic data transmission, each data transmission of the periodic data transmission comprising a predetermined number of repetitions, said method comprising: sending a first SPS configuration to a user equipment (400, 600) for the periodic data transmission, said SPS configuration including a SPS period and an offset; allocating available SPS resources within the SPS period for the periodic data transmission, wherein a number of SPS resources allocated for the periodic data transmission exceeds the number of repetitions in each data transmission; receiving a data transmission from or sending a data transmission to the user equipment (400, 600) in a first SPS period; determining a new SPS configuration based on a timing of the data transmission to synchronize the SPS period with the periodic data transmission; and sending the new SPS configuration to the user equipment (400, 600). sending a first SPS configuration to a user equipment (400, 600) for the periodic data transmission, said SPS configuration including a SPS period and an offset; allocating available SPS resources within the SPS period for the periodic data transmission, wherein a number of SPS resources allocated for the periodic data transmission exceeds the number of repetitions in each data transmission; receiving a data transmission from or sending a data transmission to the user equipment (400, 600) in a first SPS period; determining a new SPS configuration based on a timing of the data transmission to synchronize the SPS period with the periodic data transmission; and sending the new SPS configuration to the user equipment (400, 600).
A junction for transporting sample racks (4, 4') in an analytical system comprising one or more work cells (2, 2') for processing samples, comprising: - plural main transport lines (8, 9) for transporting first and second sample racks (4, 4'), wherein said first sample racks have a bigger rack size than said second sample racks with respect to transporting directions of said main transport lines (8, 9); - a turntable provided with at least one rotatable transport line (11, 12) for transporting said first and second sample racks (4, 4'), said rotatable transport line (11, 12) being coupled to said main transport lines (8, 9) in a manner to alternately connect said rotatable transport line (11, 12) to said main transport lines (8, 9) and/or to interconnect at least two main transport lines (8, 9); - one or more bypass transport lines, each of which interconnecting two main transport lines (8, 9) bypassing said turntable and being curved in a manner to enable transport of said second sample racks and disable transport of said first sample racks and being associated with at least one controllable main/bypass line switch operable to guide said second sample racks from one main transport line (8, 9) to said bypass transport line or to keep said second sample racks on said main transport line (8, 9). - plural main transport lines (8, 9) for transporting first and second sample racks (4, 4'), wherein said first sample racks have a bigger rack size than said second sample racks with respect to transporting directions of said main transport lines (8, 9); - a turntable provided with at least one rotatable transport line (11, 12) for transporting said first and second sample racks (4, 4'), said rotatable transport line (11, 12) being coupled to said main transport lines (8, 9) in a manner to alternately connect said rotatable transport line (11, 12) to said main transport lines (8, 9) and/or to interconnect at least two main transport lines (8, 9); - one or more bypass transport lines, each of which interconnecting two main transport lines (8, 9) bypassing said turntable and being curved in a manner to enable transport of said second sample racks and disable transport of said first sample racks and being associated with at least one controllable main/bypass line switch operable to guide said second sample racks from one main transport line (8, 9) to said bypass transport line or to keep said second sample racks on said main transport line (8, 9).
A User Equipment for use in a mobile communication system, the mobile communication system comprising a Packet Data Gateway and the User Equipment, wherein the User Equipment is configured to establish a first transfer path by way of a first access network between the User Equipment and the Packet Data Gateway, when performing transmission/reception of a plurality of flows with the Packet Data Gateway by using the first transfer path, the User Equipment is configured to establish a default Evolved Packet System, EPS, bearer on a second transfer path by way of a second access network between the User Equipment and the Packet Data Gateway by transmitting an attach request, the UE is configured to establish a specific Evolved Packet System, EPS, bearer on the second transfer path by way of the second access network between the User Equipment and the Packet Data Gateway by further transmitting a position register request including identification information that identifies a part of the plurality of flows, to the Packet Data Gateway by way of the second access network, and characterized in that after transmitting the position register request to the Packet Data Gateway, the User Equipment is configured to switch, a transfer path for performing transmission/reception of the flow identified by the identification information, from the first transfer path by way of the first access network to the second transfer path by way of the second access network.
- Drilling template (20, 30a, 30b, 30c) comprising: - a rigid framework (21, 31a, 31b, 31c) able to be manipulated by an operator or an automaton, and - a set of traversing orifices (22,32a, 32b, 32c, 33c) designed according to the requested holes to drill, wherein - the drilling template (20, 30a, 30b, 30c) is designed or restyled on an ad-hoc basis and manufactured via a 3D printing technology based on a polymer material characterized in that the polymer material is mixed with powdered graphene and in that the drilling template comprises a circuit board partially or totally embedded within the rigid framework (21, 31a, 31b, 31c), said circuit board comprising: - a set of sensors able to measure values respectively from the rigid framework (21, 31a, 31b, 31c) and/or from or with respect to the structure to drill; - a set of digital and/or analogic components able to operate respectively digital or analogic signals from the set of sensors; - at least one IHM (Interface Human Machine) able to allow to an operator or an automaton to interact with the sensors of the said drilling template (20, 30a, 30b, 30c); and - at least one conductive trace able to connect the set of sensors to respectively the set of digital and/or analogic components, and the at least one IHM. - a rigid framework (21, 31a, 31b, 31c) able to be manipulated by an operator or an automaton, and - a set of traversing orifices (22,32a, 32b, 32c, 33c) designed according to the requested holes to drill, wherein - the drilling template (20, 30a, 30b, 30c) is designed or restyled on an ad-hoc basis and manufactured via a 3D printing technology based on a polymer material characterized in that the polymer material is mixed with powdered graphene and in that the drilling template comprises a circuit board partially or totally embedded within the rigid framework (21, 31a, 31b, 31c), said circuit board comprising: - a set of sensors able to measure values respectively from the rigid framework (21, 31a, 31b, 31c) and/or from or with respect to the structure to drill; - a set of digital and/or analogic components able to operate respectively digital or analogic signals from the set of sensors; - at least one IHM (Interface Human Machine) able to allow to an operator or an automaton to interact with the sensors of the said drilling template (20, 30a, 30b, 30c); and - at least one conductive trace able to connect the set of sensors to respectively the set of digital and/or analogic components, and the at least one IHM. - a set of sensors able to measure values respectively from the rigid framework (21, 31a, 31b, 31c) and/or from or with respect to the structure to drill; - a set of digital and/or analogic components able to operate respectively digital or analogic signals from the set of sensors; - at least one IHM (Interface Human Machine) able to allow to an operator or an automaton to interact with the sensors of the said drilling template (20, 30a, 30b, 30c); and - at least one conductive trace able to connect the set of sensors to respectively the set of digital and/or analogic components, and the at least one IHM.
A tracking apparatus of a mobile communication system, comprising: a signal extractor for extracting an on-time energy signal, an early energy signal, and a late energy signal from a received signal; a descrambler for descrambling the on-time energy signal, the early energy signal, and the late energy signal; a dechannelizer for dechannelizing the descrambled on-time energy signal, the early energy signal, and the late energy signal; a despreader for despreading the dechannelized on-time energy signal, the early energy signal, and the late energy signal; an energy calculator for calculating power levels of the despread on-time energy signal, the early energy signal, and the late energy signal; an early energy interference remover for removing a multipath interference component contained in the early energy signal; and a late energy interference remover for removing a multipath interference component contained in the late energy signal; and a location estimator for comparing an amplitude of the interference-removed early energy output from the early energy interference remover to an amplitude of the interference-removed late energy output from the late energy interference remover to determine whether an accurate receiving position is extracted. a signal extractor for extracting an on-time energy signal, an early energy signal, and a late energy signal from a received signal; a descrambler for descrambling the on-time energy signal, the early energy signal, and the late energy signal; a dechannelizer for dechannelizing the descrambled on-time energy signal, the early energy signal, and the late energy signal; a despreader for despreading the dechannelized on-time energy signal, the early energy signal, and the late energy signal; an energy calculator for calculating power levels of the despread on-time energy signal, the early energy signal, and the late energy signal; an early energy interference remover for removing a multipath interference component contained in the early energy signal; and a late energy interference remover for removing a multipath interference component contained in the late energy signal; and a location estimator for comparing an amplitude of the interference-removed early energy output from the early energy interference remover to an amplitude of the interference-removed late energy output from the late energy interference remover to determine whether an accurate receiving position is extracted.
An absorbent article comprising a non-woven functional core cover encapsulating an absorbent core, said functional core cover comprising at least a first fraction comprising lyocell fibres, where a majority of the fibres constituting the functional core cover are oriented in the same direction, characterised in that the fibres in said functional core cover are mutually bonded via entanglement.
A power supply having a switchable polarity, the power supply comprising: a positive output voltage generation circuit; and a negative output voltage generation circuit; wherein each of the positive output voltage generation circuit and the negative output voltage generation circuit includes a piezoelectric transformer, a piezoelectric transformer driving circuit, an output voltage detection circuit, and a drive control circuit arranged to output a control signal for controlling the piezoelectric transformer driving circuit using a signal from the output voltage detection circuit and an output voltage setting signal for setting an output voltage, wherein the positive output voltage generation circuit and the negative output voltage generation circuit are both arranged to be energized for a certain period of time in the case that the output polarity of the power supply is switched. a positive output voltage generation circuit; and a negative output voltage generation circuit; wherein each of the positive output voltage generation circuit and the negative output voltage generation circuit includes a piezoelectric transformer, a piezoelectric transformer driving circuit, an output voltage detection circuit, and a drive control circuit arranged to output a control signal for controlling the piezoelectric transformer driving circuit using a signal from the output voltage detection circuit and an output voltage setting signal for setting an output voltage, wherein the positive output voltage generation circuit and the negative output voltage generation circuit are both arranged to be energized for a certain period of time in the case that the output polarity of the power supply is switched.
A damper system, comprising: - a sensor, that can measure a mechanical vibration and is capable of producing an electrical input signal caused by the vibration and wherein the sensor is designed to be mounted between a body to be damped and a reference-mass; - an electrical controller responsive to the electrical input signal and producing an electrical output signal; - and an actuator (2110, 2150) responsive to the electrical output signal thereby producing a force between the body to be damped and an external body wherein the sensor and the actuator (2110, 2150) are integrated together thereby having a substantially small delay of less than 1 millisecond; wherein the delay substantially consists of the sum of an acoustic signal delay and an electronic signal delay in the actuator and the sensor loop. - a sensor, that can measure a mechanical vibration and is capable of producing an electrical input signal caused by the vibration and wherein the sensor is designed to be mounted between a body to be damped and a reference-mass; - an electrical controller responsive to the electrical input signal and producing an electrical output signal; - and an actuator (2110, 2150) responsive to the electrical output signal thereby producing a force between the body to be damped and an external body wherein the sensor and the actuator (2110, 2150) are integrated together thereby having a substantially small delay of less than 1 millisecond;
Process for preparing cyanimino-1,3-thiazolidine by reacting dimethyl N-cyanocarbonimidodithiocarbonate and salts of cysteamine in the presence of at least one alkali metal carbonate or alkali metal hydrogencarbonate, wherein the solvent consists of water to an extent of at least 50%.
A drawer with a drawer body and with a support wherein the drawer includes a lifting device that is configured to displace the drawer body in a completely extended condition in a vertical direction, wherein the drawer includes a pull out device, wherein a drive device of the drawer is coupled in a driving manner in a first drawer condition with the drive of the pull out device and in a second drawer condition with the drive of the lifting device, characterized in that the drive device of the drawer includes a gear wheel, the drive of the pull out device includes a gear rack and the drive of the lifting device includes a gear wheel wherein the gear wheel of the lifting device is arranged so that the gear wheel of the drive device meshes in the first drawer condition with the gear rack of the pull out device and meshes in the second drawer condition with the gear wheel of the lifting device.
Robot system, comprising • a robot arm with a movable tip and at least two degrees of freedom in movement, • a robot controller which is configured to control the movement of a reference point, which is one of the tip of the robot arm or the tool center point of a tool mounted on the tip of the robot arm, along a predetermined movement path (38, 68, 86) between a start position and an end position, • a device with an external movement axis (46, 90) which is movable between a first and a second axis limit and sensor means for determining the position of the external movement axis (46, 90), • wherein the robot controller comprises input means for a control signal (52, 62) which represents values in between a first and a second signal limit, • wherein the robot controller is configured to assign each value of the control signal (52, 62) to a related position of the reference point along the predetermined movement path (38, 68, 86) and • wherein the robot controller is configured to control the movement of the reference point along the predetermined movement path (38, 68, 86) dependent on the respective values of the control signal (52, 62), characterized in that it further comprises • source means configured to generate a master signal in such a way that it describes consecutive positions of the external movement axis (46, 90) with consecutive values between first and second axis limits, and to supply said master signal to the input means as said control signal, so that the movement of the reference point along the predetermined movement path (38, 68, 86) is interconnected with the actual position of the external movement axis (46, 90). • a robot arm with a movable tip and at least two degrees of freedom in movement, • a robot controller which is configured to control the movement of a reference point, which is one of the tip of the robot arm or the tool center point of a tool mounted on the tip of the robot arm, along a predetermined movement path (38, 68, 86) between a start position and an end position, • a device with an external movement axis (46, 90) which is movable between a first and a second axis limit and sensor means for determining the position of the external movement axis (46, 90), • wherein the robot controller comprises input means for a control signal (52, 62) which represents values in between a first and a second signal limit, • wherein the robot controller is configured to assign each value of the control signal (52, 62) to a related position of the reference point along the predetermined movement path (38, 68, 86) and • wherein the robot controller is configured to control the movement of the reference point along the predetermined movement path (38, 68, 86) dependent on the respective values of the control signal (52, 62), • source means configured to generate a master signal in such a way that it describes consecutive positions of the external movement axis (46, 90) with consecutive values between first and second axis limits, and to supply said master signal to the input means as said control signal,
Mounting having a base body in conjunction with a handpiece of an intraoral scanner, which has a head region, characterized by a accommodation region of the base body, in which the head region can be accommodated at in an least partially form-fitting manner, and which has an inner surface having at least two holding regions (10, 11) arranged essentially opposite to one another.
Method for controlling an automated driving operation of a vehicle, wherein - the automated driving operation is authorized depending on a number of prespecified conditions, - traffic information and event information are received by the vehicle, - the traffic information contains location- and time-referenced information about a traffic jam on a portion of road ahead of the vehicle, and the event information contains location- and time-referenced information about an event on the portion of road ahead, characterized in that - the traffic information and the event information are assessed by the vehicle as related if they are close together in space and time, - the automated driving operation of the vehicle is not authorized if event information and traffic information are available for a specified prediction horizon, but only if these are assessed as not related. - the automated driving operation is authorized depending on a number of prespecified conditions, - traffic information and event information are received by the vehicle, - the traffic information contains location- and time-referenced information about a traffic jam on a portion of road ahead of the vehicle, and the event information contains location- and time-referenced information about an event on the portion of road ahead, characterized in that - the traffic information and the event information are assessed by the vehicle as related if they are close together in space and time, - the automated driving operation of the vehicle is not authorized if event information and traffic information are available for a specified prediction horizon, but only if these are assessed as not related.