mhurhangee/patent-ind-claim-en huggingface dataset:
Switching contact unit for mounting on a rebate between a fixed frame and a window sash or door leaf , at least comprising: - a base housing having fastening means for fastening to the fixed frame or to the sash/leaf ; - a switching contact pin which is intended for bearing on the fixed frame or on the sash/leaf and which is mounted in a pin-guiding recess (11.3) in the base housing so as to be displaceable against the force of at least one spring element, - an electrical microswitch element which is arranged in the base housing and has an actuating element which is movable with respect to a microswitch housing; wherein the switching contact pin is provided, at least in that region of its length which is swept by the actuating element of the microswitch element , with at least one switching portion (14.4) which has a diameter which is changed with respect to a base portion (14.2) and on which the microswitch element can be switched, and wherein a conical transition is formed between the base portion (14.2) and the switching portion (14.4) ; characterized in that the actuating direction (B) of the actuating element is oriented at an angle of between 60° and 85° obliquely to the displacement direction (V) of the switching contact pin . - a base housing having fastening means for fastening to the fixed frame or to the sash/leaf ; - a switching contact pin which is intended for bearing on the fixed frame or on the sash/leaf and which is mounted in a pin-guiding recess (11.3) in the base housing so as to be displaceable against the force of at least one spring element, - an electrical microswitch element which is arranged in the base housing and has an actuating element which is movable with respect to a microswitch housing;
A medical instrument having a conduit through which a medical procedure is performed: the conduit selectively configured for insertion into a subject, the conduit being configured such that a selected tool can be inserted into the conduit and extend from the distal end of the conduit; a controller configured to sense the curvature of the conduit in the subject; a peripheral device ; the controller configured to control the peripheral device to provide a warning signal, upon a condition that a curvature is sensed that exceeds a predetermined limit reflective of a maximum curvature permissible for a selected tool to be inserted through the conduit while avoiding puncturing of the conduit by the selected tool. the conduit selectively configured for insertion into a subject, the conduit being configured such that a selected tool can be inserted into the conduit and extend from the distal end of the conduit; a controller configured to sense the curvature of the conduit in the subject; a peripheral device ; the controller configured to control the peripheral device to provide a warning signal, upon a condition that a curvature is sensed that exceeds a predetermined limit reflective of a maximum curvature permissible for a selected tool to be inserted through the conduit while avoiding puncturing of the conduit by the selected tool.
A control circuit for a contactor, wherein the contactor comprises an excitation coil and a main contact coupled to the excitation coil , the control circuit comprising: a pulse converter configured to convert a received turn-on control signal indicating to turn on the contactor into a continuous pulse signal ; a first controller connected to the pulse converter and configured to generate a first breaking control signal at a first time (t3) in response to detection of the disappearance of the continuous pulse signal received from the pulse converter ; characterised by a second controller connected to the pulse converter and in parallel with the first controller , the second controller being configured to generate a second breaking control signal at a second time (t4) in response to detection of the disappearance of the continuous pulse signal received from the pulse converter , wherein the first time (t3) is earlier than the second time (t4); and a coil driver connected to the first controller , the second controller and the excitation coil , and configured to turn off a current of the excitation coil according to the received first breaking control signal , and if the current is not turned off according to the first breaking control signal , to further turn off the current of the excitation coil according to the second breaking control signal , thereby realizing the breaking of the main contact . a pulse converter configured to convert a received turn-on control signal indicating to turn on the contactor into a continuous pulse signal ; a first controller connected to the pulse converter and configured to generate a first breaking control signal at a first time (t3) in response to detection of the disappearance of the continuous pulse signal received from the pulse converter ; characterised by a second controller connected to the pulse converter and in parallel with the first controller , the second controller being configured to generate a second breaking control signal at a second time (t4) in response to detection of the disappearance of the continuous pulse signal received from the pulse converter , wherein the first time (t3) is earlier than the second time (t4); and a coil driver connected to the first controller , the second controller and the excitation coil , and configured to turn off a current of the excitation coil according to the received first breaking control signal , and if the current is not turned off according to the first breaking control signal , to further turn off the current of the excitation coil according to the second breaking control signal , thereby realizing the breaking of the main contact .
A method for uplink Multiple-Input Multiple-Output rank adaptation, comprising: estimating (S202) a maximum supportable data rate and reference signal channel information of a user equipment in uplink transmission; comparing (S203) the maximum supportable data rate with one or more predetermined thresholds, wherein the predetermined thresholds are associated with corresponding ranks, and selecting a rank corresponding to the predetermined threshold when the predetermined threshold is exceeded by the estimated maximum supportable data rate; estimating a rank of the reference signal channel information; and determining (S204) a rank used by the user equipment in the uplink transmission as the smaller of the rank selected in the comparing and the estimated rank. estimating (S202) a maximum supportable data rate and reference signal channel information of a user equipment in uplink transmission; comparing (S203) the maximum supportable data rate with one or more predetermined thresholds, wherein the predetermined thresholds are associated with corresponding ranks, and selecting a rank corresponding to the predetermined threshold when the predetermined threshold is exceeded by the estimated maximum supportable data rate; estimating a rank of the reference signal channel information; and determining (S204) a rank used by the user equipment in the uplink transmission as the smaller of the rank selected in the comparing and the estimated rank.
Coin sorting apparatus, having a first and at least one second receptacle for receiving coins , a singularization unit for singularizing coins , and having a transport unit for transporting coins from the singularization unit to the first receptacle , arranged downstream of the singularization unit , and the second receptacle , arranged downstream of the first receptacle , wherein the transport unit has a first transport section , which is arranged between the singularization unit and the first receptacle and along which both the coins to be supplied to the first receptacle and the coins to be supplied to the second receptacle are transported, and a second transport section , which is arranged between the first receptacle and the second receptacle and along which only the coins that are not supplied to the first receptacle are transported, wherein the first transport section has a first sensor arranged in it for detecting coins transported along the first transport section , the second transport section has a second sensor arranged in it for detecting coins transported along the second transport section , and there is provision for a control unit that takes the information obtained from the first sensor and the second sensor as a basis for ascertaining the number of coins supplied to the first receptacle , wherein the control unit uses the first sensor to ascertain the number of coins transported along the first transport section , wherein the control unit uses the second sensor to ascertain the number of coins transported along the second transport section , wherein the control unit ascertains the number of coins supplied to the first receptacle by subtracting the number of coins transported along the second transport section from the number of coins transported along the first transport section , wherein there is provision for a testing unit for ascertaining the denomination of supplied coins , wherein the control unit takes the ascertained denominations as a basis for stipulating for each receptacle a setpoint value for the coins that are to be supplied to it as scheduled, and wherein the control unit compares the number of supplied coins , ascertained using the sensors (62 to 70), for at least one receptacle with the applicable setpoint value, characterized in that the control unit compares the number of supplied coins ascertained using the sensors (62 to 70) with the applicable setpoint value each time after each coin is supplied.
A method for transmitting feedback information by a user equipment, UE, in a wireless communication system, the method comprising: receiving a first set of channel state information reference signals, CSI-RS, and a second set of CSI-RS; calculating a channel quality indicator, CQI, using a received power of the first set of CSI-RS and a channel matrix estimated based on the second set of CSI-RS; and transmitting, to a base station, feedback based on the calculated CQI, wherein the CQI is calculated according to: P E − CSI − RS e ⋅ H Az wherein P E − CSI − RS e is the received power on the first set of CSI-RS, and H AZ is the channel matrix based on the second set of CSI-RS. receiving a first set of channel state information reference signals, CSI-RS, and a second set of CSI-RS; calculating a channel quality indicator, CQI, using a received power of the first set of CSI-RS and a channel matrix estimated based on the second set of CSI-RS; and transmitting, to a base station, feedback based on the calculated CQI, wherein the CQI is calculated according to: P E − CSI − RS e ⋅ H Az wherein P E − CSI − RS e is the received power on the first set of CSI-RS, and H AZ is the channel matrix based on the second set of CSI-RS.
A flow entry management method, performed by a switch, comprising: receiving a management instruction initiated by a controller for a flow entry ; obtaining a management authority level of the controller and a security level of the flow entry ; comparing the management authority level of the controller with the security level of the flow entry ; performing corresponding management on the flow entry according to the management instruction initiated by the controller when it is determined that the management authority level of the controller is not lower than the security level of the flow entry . receiving a management instruction initiated by a controller for a flow entry ; obtaining a management authority level of the controller and a security level of the flow entry ; comparing the management authority level of the controller with the security level of the flow entry ; performing corresponding management on the flow entry according to the management instruction initiated by the controller when it is determined that the management authority level of the controller is not lower than the security level of the flow entry .
A vehicle lamp comprising: an infrared light semiconductor light source which emits infrared light; a white light semiconductor light source which emits white light; and a control unit comprising: a current supply circuit which supplies a light source driving current to each of the infrared light semiconductor light source and the white light semiconductor light source; a light source abnormality detecting unit which detects abnormality of the white light semiconductor light source and stops a driving operation of the infrared light semiconductor light source in response to detecting the abnormality; and further comprising: a cooling fan which cools the infrared light semiconductor light source, wherein the control unit controls a fan driving current for driving the cooling fan, and further comprises: a fan abnormality detecting unit which detects abnormality of the cooling fan and stops the driving operation of the infrared light semiconductor light source in response to detecting the abnormality of the cooling fan. an infrared light semiconductor light source which emits infrared light; a white light semiconductor light source which emits white light; and a control unit comprising: a current supply circuit which supplies a light source driving current to each of the infrared light semiconductor light source and the white light semiconductor light source; a light source abnormality detecting unit which detects abnormality of the white light semiconductor light source and stops a driving operation of the infrared light semiconductor light source in response to detecting the abnormality; and further comprising: a cooling fan which cools the infrared light semiconductor light source, wherein the control unit controls a fan driving current for driving the cooling fan, and further comprises: a fan abnormality detecting unit which detects abnormality of the cooling fan and stops the driving operation of the infrared light semiconductor light source in response to detecting the abnormality of the cooling fan. a current supply circuit which supplies a light source driving current to each of the infrared light semiconductor light source and the white light semiconductor light source; a light source abnormality detecting unit which detects abnormality of the white light semiconductor light source and stops a driving operation of the infrared light semiconductor light source in response to detecting the abnormality; and further comprising: a cooling fan which cools the infrared light semiconductor light source, wherein the control unit controls a fan driving current for driving the cooling fan, and further comprises: a fan abnormality detecting unit which detects abnormality of the cooling fan and stops the driving operation of the infrared light semiconductor light source in response to detecting the abnormality of the cooling fan.
A compressor comprising: a shell defining a lubricant sump ; a compression mechanism disposed within said shell and operable to compress a working fluid; a first temperature sensor at least partially disposed within said shell at a first position; a second temperature sensor at least partially disposed within said shell at a second position that is vertically higher than said first position; a pressure sensor disposed at least partially within said shell; and a control module in communication with said first and second temperature sensors and said pressure sensor , said control module configured to determine a difference between a first temperature measurement from said first temperature sensor and a second temperature measurement from said second temperature sensor, characterized in that said control module being configured to determine whether a liquid level in said lubricant sump is below a predetermined level or that the compressor is operating under a flood-back condition based on said difference and to distinguish between whether the liquid level in said lubricant sump is below a predetermined level or that the compressor is operating under a flood-back condition based on data from said pressure sensor. a shell defining a lubricant sump ; a compression mechanism disposed within said shell and operable to compress a working fluid; a first temperature sensor at least partially disposed within said shell at a first position; a second temperature sensor at least partially disposed within said shell at a second position that is vertically higher than said first position; a pressure sensor disposed at least partially within said shell; and a control module in communication with said first and second temperature sensors and said pressure sensor , said control module configured to determine a difference between a first temperature measurement from said first temperature sensor and a second temperature measurement from said second temperature sensor, characterized in that said control module being configured to determine whether a liquid level in said lubricant sump is below a predetermined level or that the compressor is operating under a flood-back condition based on said difference and to distinguish between whether the liquid level in said lubricant sump is below a predetermined level or that the compressor is operating under a flood-back condition based on data from said pressure sensor.
Brake with an emergency release device which has an adjusting ring which is rotatably mounted on a housing and has an emergency release position and an operating position, at least one tension element being displaceably mounted in the housing and having a catch projecting in the radial direction from the housing , which bears against an adjusting section and which, during an adjustment operation of the adjusting ring into its emergency release position, moves the tension element into a position releasing the brake, means holding the catch being provided in the region of the emergency release position.
Protective sheath applicable to a drill for drilling rails of the type having: - a support portion that supports an electric motor that can be powered by a battery , a drilling tool defining a tool axis , and a reduction gear arranged between the motor and the drilling tool , - a rechargeable battery removably coupled with the electric motor , wherein said sheath is made of elastomeric flexible material, impermeable to liquids, and has a generically tubular shape with a front opening and a rear opening opposite the front opening in the direction of the tool axis , so as to be able to be slotted over the electric motor and over at least a part of the battery to protect them, wherein the sheath forms a ventilation channel with two first inlet openings formed in an outer surface of the sheath and facing downwards, and with an inner ventilation section that is concave and open towards the inside of the sheath so as to communicate cooling air from the inlet opening to a cooling system of the drill , characterized in that the ventilation channel is shaped like an arc extending along two lateral walls and along an upper wall of the sheath so as to be positioned, when the sheath is applied on the drill, astride of the electric motor , and wherein the air inlet openings are formed at the two lower ends of the ventilation channel . - a support portion that supports an electric motor that can be powered by a battery , a drilling tool defining a tool axis , and a reduction gear arranged between the motor and the drilling tool , - a rechargeable battery removably coupled with the electric motor , wherein said sheath is made of elastomeric flexible material, impermeable to liquids, and has a generically tubular shape with a front opening and a rear opening opposite the front opening in the direction of the tool axis , so as to be able to be slotted over the electric motor and over at least a part of the battery to protect them, wherein the sheath forms a ventilation channel with two first inlet openings formed in an outer surface of the sheath and facing downwards, and with an inner ventilation section that is concave and open towards the inside of the sheath so as to communicate cooling air from the inlet opening to a cooling system of the drill , characterized in that the ventilation channel is shaped like an arc extending along two lateral walls and along an upper wall of the sheath so as to be positioned, when the sheath is applied on the drill, astride of the electric motor , and wherein the air inlet openings are formed at the two lower ends of the ventilation channel .
A domain name system, DNS, server , comprising: a receiver for receiving a DNS query comprising a domain name from a client device , wherein the domain name corresponds to a host server ; characterised by : a modifier for appending a domain to an end of the domain name of the DNS query to create a modified domain name; a mapping engine for comparing the modified domain name to a local cache, wherein the local cache is stored on a memory device, wherein the local cache comprises a dummy zone file corresponding to the appended domain and comprising a list of domain names, at least some of which are to be routed to an Internet Protocol, IP, address corresponding to an intermediate server , wherein the mapping engine is configured to search for a matching domain name in the dummy zone file, the DNS server is configured to return the IP address of the intermediate server to the client device in response to the mapping engine finding a match for the modified domain name, wherein the match corresponds to a domain name to be routed to the intermediate server; the domain name system (DNS) server system further comprising: a forwarding engine configured to remove the appended domain from the end of the modified domain name in response to the mapping engine not finding a match for the modified domain name and then to forward the domain name to a forwarding DNS server after the appended domain has been removed from the modified domain name if the server is not authoritative for the domain name, to obtain a destination IP address for the host server . a receiver for receiving a DNS query comprising a domain name from a client device , wherein the domain name corresponds to a host server ; characterised by : a modifier for appending a domain to an end of the domain name of the DNS query to create a modified domain name; a mapping engine for comparing the modified domain name to a local cache, wherein the local cache is stored on a memory device, wherein the local cache comprises a dummy zone file corresponding to the appended domain and comprising a list of domain names, at least some of which are to be routed to an Internet Protocol, IP, address corresponding to an intermediate server , wherein the mapping engine is configured to search for a matching domain name in the dummy zone file, the DNS server is configured to return the IP address of the intermediate server to the client device in response to the mapping engine finding a match for the modified domain name, wherein the match corresponds to a domain name to be routed to the intermediate server; the domain name system (DNS) server system further comprising: a forwarding engine configured to remove the appended domain from the end of the modified domain name in response to the mapping engine not finding a match for the modified domain name and then to forward the domain name to a forwarding DNS server after the appended domain has been removed from the modified domain name if the server is not authoritative for the domain name, to obtain a destination IP address for the host server .