mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decontaminating personal protective equipment, the method comprising: while a person wearing the personal protective equipment to be decontaminated is present within a booth having a plurality of internally-reflective surfaces, operating a plurality of UVC light sources arranged to emit UVC light into the booth ; wherein the booth includes a rigid frame that supports a shell made from a flexible material to form an enclosure; wherein at least one portion of the inward-facing surface of the shell is provided with a reflective material that reflects UVC light; maintaining operation of the UVC light sources while the person wearing the personal protective equipment is in the booth to expose surfaces of the personal protection equipment to the UVC light for a predetermined period of time suitable to achieve a desired level of decontamination of the surfaces of the personal protective equipment ; and de-energizing the UVC light sources after expiration of the predetermined period of time. while a person wearing the personal protective equipment to be decontaminated is present within a booth having a plurality of internally-reflective surfaces, operating a plurality of UVC light sources arranged to emit UVC light into the booth ; wherein the booth includes a rigid frame that supports a shell made from a flexible material to form an enclosure; wherein at least one portion of the inward-facing surface of the shell is provided with a reflective material that reflects UVC light; maintaining operation of the UVC light sources while the person wearing the personal protective equipment is in the booth to expose surfaces of the personal protection equipment to the UVC light for a predetermined period of time suitable to achieve a desired level of decontamination of the surfaces of the personal protective equipment ; and de-energizing the UVC light sources after expiration of the predetermined period of time.
A varistor component (VC), comprising - a first and a second external contact (EC1, EC2), - a varistor (V) electrically connected to the first external contact (EC1), - a path (P) between the varistor (V) and the second external contact (EC2), - an active releasing device (ARD) having a shutter (SH) and a heat sensitive element (HSE), - a linear guide rail (GR), where - under abnormal operation conditions the heat sensitive element (HSE) releases the shutter (SH), the shutter (SH) moves along a straight line and closes the path (P) between the varistor (V) and the second external contact (EC2), - the shutter (SH) is arranged in the guide rail (GR). - the shutter (SH) is a slider, - the heat sensitive element (HSE) is a metallic body extending through the guide rail (GR) and through the shutter (SH), - the heat sensitive element (HSE) electrically connects the varistor (V) to the second external contact (EC2). - a first and a second external contact (EC1, EC2), - a varistor (V) electrically connected to the first external contact (EC1), - a path (P) between the varistor (V) and the second external contact (EC2), - an active releasing device (ARD) having a shutter (SH) and a heat sensitive element (HSE), - a linear guide rail (GR), where - under abnormal operation conditions the heat sensitive element (HSE) releases the shutter (SH), the shutter (SH) moves along a straight line and closes the path (P) between the varistor (V) and the second external contact (EC2), - the shutter (SH) is arranged in the guide rail (GR). - the shutter (SH) is a slider, - the heat sensitive element (HSE) is a metallic body extending through the guide rail (GR) and through the shutter (SH), - the heat sensitive element (HSE) electrically connects the varistor (V) to the second external contact (EC2).
Transponder, in particular RFID transponder, configured in such a manner that at least one first line of at least two antennas is formed, which antennas are each configured and operated in the backscatter manner and are functionally connected to one another in such a manner that, upon receiving a signal, they scatter the signal back in the backscatter manner by means of a formed radiation characteristic, characterized in that the functional connection is configured in such a manner that individual ones of the antennas can be activated and/or deactivated.
Method of manufacturing a permanent magnet comprising at least one rare earth element, wherein - a conversion of the at least one rare earth element into an inerted compound is carried out in at least two steps, wherein - in at least a first conversion step, hydrogenation of the rare earth element is carried out, wherein - in at least one second conversion step, the hydrogenated rare earth element is partially dehydrogenated completely into a hydride which is more stable to carbon and oxygen, wherein - a raw material comprising the at least one rare earth element is provided, wherein - the raw material is mixed with a binder material, wherein a mixture is formed, wherein - the at least one first conversion step is performed before or after formation of the mixture, wherein - the mixture is processed in a metal powder injection moulding process, wherein a green body is obtained, wherein - the at least one second conversion step is carried out prior to thermal debinding of the green body, wherein - thermal debinding of the green body is performed, wherein - reconversion of the inerted compound to the rare earth element is carried out by complete dehydrogenation after thermal debinding, wherein - the debinded green body is sintered. - a conversion of the at least one rare earth element into an inerted compound is carried out in at least two steps, wherein - in at least a first conversion step, hydrogenation of the rare earth element is carried out, wherein - in at least one second conversion step, the hydrogenated rare earth element is partially dehydrogenated completely into a hydride which is more stable to carbon and oxygen, wherein - a raw material comprising the at least one rare earth element is provided, wherein - the raw material is mixed with a binder material, wherein a mixture is formed, wherein - the at least one first conversion step is performed before or after formation of the mixture, wherein - the mixture is processed in a metal powder injection moulding process, wherein a green body is obtained, wherein - the at least one second conversion step is carried out prior to thermal debinding of the green body, wherein - thermal debinding of the green body is performed, wherein - reconversion of the inerted compound to the rare earth element is carried out by complete dehydrogenation after thermal debinding, wherein - the debinded green body is sintered.
A mineral extraction system , comprising: a tubing hanger configured to couple to and support a tubing string , wherein the tubing hanger defines an outlet; a running tool configured to couple to the tubing hanger to lower the tubing hanger into a wellhead ; a hanger orientation system configured to orient the tubing hanger within the wellhead , the hanger orientation system comprising a hanger orientation device coupled to the running tool ; characterized in that the hanger orientation device defines a spiral groove , and the hanger orientation device further comprising a pin configured to engage the spiral groove on the hanger orientation device to rotate the tubing hanger within the wellhead . a tubing hanger configured to couple to and support a tubing string , wherein the tubing hanger defines an outlet; a running tool configured to couple to the tubing hanger to lower the tubing hanger into a wellhead ; a hanger orientation system configured to orient the tubing hanger within the wellhead , the hanger orientation system comprising a hanger orientation device coupled to the running tool ; characterized in that the hanger orientation device defines a spiral groove , and the hanger orientation device further comprising a pin configured to engage the spiral groove on the hanger orientation device to rotate the tubing hanger within the wellhead .
An imaging system for capturing images of biological samples having a surface, the system comprising: - a sample support for supporting a biological sample in use; - a plurality of illumination sources, the plurality of illumination sources being arranged around the sample support and each adapted to illuminate the biological sample, in use, from a different direction; - a head unit including an image capture device for capturing illumination which has impinged on the biological sample to thereby form an image of the sample; wherein the plurality of illumination sources includes an annular source directed towards the surface to produce annular illumination, and an annular source directed upwards away from the surface to produce inverse annular illumination wherein said annular source illumination and said inverse annular source illumination directions are not perpendicular to the surface of the sample and wherein said inverse annular illumination is reflected from the head unit and wherein the plurality of illumination sources further includes: a backlighting source having an illumination direction being perpendicular to the biological sample; a near horizontal source located in the sample support; and a vertical source located in the head unit and having an illumination direction being perpendicular to the biological sample. - a sample support for supporting a biological sample in use; - a plurality of illumination sources, the plurality of illumination sources being arranged around the sample support and each adapted to illuminate the biological sample, in use, from a different direction; - a head unit including an image capture device for capturing illumination which has impinged on the biological sample to thereby form an image of the sample; wherein the plurality of illumination sources includes an annular source directed towards the surface to produce annular illumination, and an annular source directed upwards away from the surface to produce inverse annular illumination wherein said annular source illumination and said inverse annular source illumination directions are not perpendicular to the surface of the sample and wherein said inverse annular illumination is reflected from the head unit and wherein the plurality of illumination sources further includes: a backlighting source having an illumination direction being perpendicular to the biological sample; a near horizontal source located in the sample support; and a vertical source located in the head unit and having an illumination direction being perpendicular to the biological sample.
A non-transitory machine-readable storage medium comprising instructions, that when executed by a processing resource , cause the processing resource to: receive an indicator of the quality of a wireless signal between an access device and a computing device ; the instructions characterized in that they further comprise instructions to: determine an upper data transfer rate from the indicator, wherein the upper data transfer rate is the maximum rate at which data can be transferred between the access device and the computing device ; determine a range of data transfer rates, wherein the range includes the upper data transfer rate and a second data transfer rate, and the second data transfer rate is lower than the upper data transfer rate; evaluate a first throughput at the upper data transfer rate based on an error rate of the access device at the upper data transfer rate; evaluate a second throughput at the second data transfer rate based on an error rate of the access device at the second data transfer rate; and determine a peak data transfer rate within the range of data transfer rates based on the throughputs, by determining the highest throughput to be the peak data transfer rate. determine an upper data transfer rate from the indicator, wherein the upper data transfer rate is the maximum rate at which data can be transferred between the access device and the computing device ; determine a range of data transfer rates, wherein the range includes the upper data transfer rate and a second data transfer rate, and the second data transfer rate is lower than the upper data transfer rate; evaluate a first throughput at the upper data transfer rate based on an error rate of the access device at the upper data transfer rate; evaluate a second throughput at the second data transfer rate based on an error rate of the access device at the second data transfer rate; and determine a peak data transfer rate within the range of data transfer rates based on the throughputs, by determining the highest throughput to be the peak data transfer rate.
A glass-ceramic composition, comprising: a first crystalline phase comprises lithium disilicate; and a second crystalline phase selected from the group consisting of at least one of: apatite, wollastonite, fluoroapatite, cristobalite, β-quartz, lithiophosphate, or a combination thereof wherein the first crystalline phase and the second crystalline phase, in combination, comprise a source of: 50 to 75 wt% SiO 2 , 1 to 5 wt% Al 2 O 3 , 1 to 8 wt% P 2 O 5 , 2 to 10 wt% CaO, 5 to 20 wt% Li 2 O, 0.5 to 5 wt% Na 2 O, 0.5 to 8 wt% ZrO 2 , and 0.1 to 1.0 wt% F - , based on a 100 wt% total of the composition. a first crystalline phase comprises lithium disilicate; and a second crystalline phase selected from the group consisting of at least one of: apatite, wollastonite, fluoroapatite, cristobalite, β-quartz, lithiophosphate, or a combination thereof wherein the first crystalline phase and the second crystalline phase, in combination, comprise a source of: 50 to 75 wt% SiO 2 , 1 to 5 wt% Al 2 O 3 , 1 to 8 wt% P 2 O 5 , 2 to 10 wt% CaO, 5 to 20 wt% Li 2 O, 0.5 to 5 wt% Na 2 O, 0.5 to 8 wt% ZrO 2 , and 0.1 to 1.0 wt% F - , based on a 100 wt% total of the composition. 50 to 75 wt% SiO 2 , 1 to 5 wt% Al 2 O 3 , 1 to 8 wt% P 2 O 5 , 2 to 10 wt% CaO, 5 to 20 wt% Li 2 O, 0.5 to 5 wt% Na 2 O, 0.5 to 8 wt% ZrO 2 , and 0.1 to 1.0 wt% F - , based on a 100 wt% total of the composition.
A method of monitoring network congestion at a device for receiving a media stream over a network , the method comprising: receiving a measure of load on a processor of a device for transmitting the media stream over the network , the processor being configured to execute instructions to form the media stream; forming a network congestion measure by monitoring a measure of delay in receiving the media stream over the network, wherein the step of monitoring the measure of delay comprises: determining a first time period between receiving an initial media frame and receiving a subsequent media frame, wherein each received frame comprises a timestamp; determining a second time period between the timestamp of the initial media frame and the timestamp of the subsequent media frame; and forming the measure of delay in dependence on the difference between the first and second time periods; and adjusting the network congestion measure in dependence on the received measure of load on the processor in order that a change in the measure of the load on the processor is not presented to the device for receiving the media stream as a change in network congestion. receiving a measure of load on a processor of a device for transmitting the media stream over the network , the processor being configured to execute instructions to form the media stream; forming a network congestion measure by monitoring a measure of delay in receiving the media stream over the network, wherein the step of monitoring the measure of delay comprises: determining a first time period between receiving an initial media frame and receiving a subsequent media frame, wherein each received frame comprises a timestamp; determining a second time period between the timestamp of the initial media frame and the timestamp of the subsequent media frame; and forming the measure of delay in dependence on the difference between the first and second time periods; and determining a first time period between receiving an initial media frame and receiving a subsequent media frame, wherein each received frame comprises a timestamp; determining a second time period between the timestamp of the initial media frame and the timestamp of the subsequent media frame; and forming the measure of delay in dependence on the difference between the first and second time periods; and adjusting the network congestion measure in dependence on the received measure of load on the processor in order that a change in the measure of the load on the processor is not presented to the device for receiving the media stream as a change in network congestion.
A light hardening device for dental purposes, comprising a plurality of semiconductor light sources each having a light emitting chip (14; 16 and 18), which chips are mounted on a common substrate , each chip (14, 16 and 18) being surrounded by a single reflector body (22, 24 and 26) which is connected to the substrate , characterized in that at least two reflector bodies (22, 24 and 26) are adjacently mounted on a common substrate , 24 and 26) and are separated from each other by a gap (30, 32 and 34) which extends in the same width across an entire parting line between the adjacent reflector bodies (22, 24 and 26), such that they are thermally and mechanically decoupled.
A computer-implemented method of sharing data, the method comprising: obtaining access to a communication service provided to a first group of users from a first organization and a second group of users from a second organization, the communication service comprising a chatroom accessible to the first group of users and the second group of users, the first organization comprising a first computing environment, and the second organization comprising a second computing environment; creating a data storage schema on at least one computer from the first computing environment; encrypting the data storage schema using at least one encryption key on the at least one computer from the first computing environment; sending the encrypted data storage schema from the first computing environment to a cloud storage infrastructure associated with the communication service, wherein at least one computer from the second computing environment receives the encrypted data storage schema from the cloud storage infrastructure, wherein the at least one computer from the second computing environment decrypts the data storage schema using the at least one encryption key; and using the data storage schema to share data between the first group of users and the second group of users through the communication service, wherein using the data storage scheme comprises creating a database record or editing a database record. obtaining access to a communication service provided to a first group of users from a first organization and a second group of users from a second organization, the communication service comprising a chatroom accessible to the first group of users and the second group of users, the first organization comprising a first computing environment, and the second organization comprising a second computing environment; creating a data storage schema on at least one computer from the first computing environment; encrypting the data storage schema using at least one encryption key on the at least one computer from the first computing environment; sending the encrypted data storage schema from the first computing environment to a cloud storage infrastructure associated with the communication service, wherein at least one computer from the second computing environment receives the encrypted data storage schema from the cloud storage infrastructure, wherein the at least one computer from the second computing environment decrypts the data storage schema using the at least one encryption key; and using the data storage schema to share data between the first group of users and the second group of users through the communication service, wherein using the data storage scheme comprises creating a database record or editing a database record.
Method of controlling movement of an elevator car within a hoistway of an elevator system , wherein the method includes: detecting an activation of a switch (8a-8d); moving the elevator car in a predetermined direction after the switch (8a-8d) has been activated and/or while the switch (8a-8d) is activated; while the elevator car is moving: determining the current position of the elevator car within the hoistway and comparing the determined position of the elevator car with at least one predefined positional limit (L UP , L LOW ); stopping the movement of the elevator car if the determined position reaches or is beyond at least one predefined positional limit (L UP , L LOW ); detecting an activation of the switch (8a-8d); starting to move the elevator car further in the predetermined direction in case the switch (8a-8d) is activated again, wherein the predefined positional limit (L UP ) is an upper positional limit (L UP ) which is set in a predefined upper distance (d UP ) from a preset uppermost position of the elevator car , and the uppermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved above the previously set uppermost position of the elevator car ; and/or the predefined positional limit (L LOW ) is a lower positional limit (L LOW ) which is set in a predefined lower distance (d LOW ) from a preset lowermost position of the elevator car , and the lowermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved below the previously set lowermost position of the elevator car . detecting an activation of a switch (8a-8d); moving the elevator car in a predetermined direction after the switch (8a-8d) has been activated and/or while the switch (8a-8d) is activated; while the elevator car is moving: determining the current position of the elevator car within the hoistway and comparing the determined position of the elevator car with at least one predefined positional limit (L UP , L LOW ); stopping the movement of the elevator car if the determined position reaches or is beyond at least one predefined positional limit (L UP , L LOW ); detecting an activation of the switch (8a-8d); starting to move the elevator car further in the predetermined direction in case the switch (8a-8d) is activated again, wherein the predefined positional limit (L UP ) is an upper positional limit (L UP ) which is set in a predefined upper distance (d UP ) from a preset uppermost position of the elevator car , and the uppermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved above the previously set uppermost position of the elevator car ; and/or the predefined positional limit (L LOW ) is a lower positional limit (L LOW ) which is set in a predefined lower distance (d LOW ) from a preset lowermost position of the elevator car , and the lowermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved below the previously set lowermost position of the elevator car .