mhurhangee/ep-ind-claims huggingface dataset:
A spine measuring device, comprising a measuring body, a measuring wheel, a balance wheel, a first detection device, a spatial coordinate acquisition device and a control device, wherein the measuring wheel is provided at one end of the measuring body, at least four balance wheels are symmetrically provided in rows at both sides of the measuring wheel and are all connected with the measuring body, the first detection device and the spatial coordinate acquisition device are both connected with the control device, the first detection device is configured to detect the movement of the measuring wheel, and the spatial coordinate acquisition device is configured to detect a spatial angle value, wherein the spine measuring device further comprises a mounting frame and an elastic element, the mounting frame is provided at one end of the measuring body, the measuring wheel is installed on the mounting frame, the elastic element is provided in the measuring body, one end of the elastic element abuts against the measuring body, and the other end thereof is connected with the mounting frame, so that the measuring wheel can move in the axial direction of the elastic element and roll along the skin, wherein the spatial coordinate acquisition device is provided on the mounting frame, the spatial coordinate acquisition device is opposite to the position of the measuring wheel, and the spatial coordinate acquisition device comprises a triaxial angle sensor. wherein the measuring wheel is provided at one end of the measuring body, at least four balance wheels are symmetrically provided in rows at both sides of the measuring wheel and are all connected with the measuring body, the first detection device and the spatial coordinate acquisition device are both connected with the control device, the first detection device is configured to detect the movement of the measuring wheel, and the spatial coordinate acquisition device is configured to detect a spatial angle value, wherein the spine measuring device further comprises a mounting frame and an elastic element, the mounting frame is provided at one end of the measuring body, the measuring wheel is installed on the mounting frame, the elastic element is provided in the measuring body, one end of the elastic element abuts against the measuring body, and the other end thereof is connected with the mounting frame, so that the measuring wheel can move in the axial direction of the elastic element and roll along the skin, wherein the spatial coordinate acquisition device is provided on the mounting frame, the spatial coordinate acquisition device is opposite to the position of the measuring wheel, and the spatial coordinate acquisition device comprises a triaxial angle sensor.
A method for the preparation of 1,4-diaminobutane comprising the steps of a) biocatalytically preparing N-protected DAB yielding a biocatalytic reaction mixture containing the N-protected DAB, b) recovering the N-protected DAB from the biocatalytic reaction mixture c) converting the N-protected DAB into DAB, wherein step a) is carried out by contacting N 5 -protected ornithine with a decarboxylase (EC 4.1.1) or by contacting N-protected 4-aminobutyraldehyde with an aminotransferase (EC 2.6.1) and wherein step c) is carried out by using a hydrolytic enzyme. a) biocatalytically preparing N-protected DAB yielding a biocatalytic reaction mixture containing the N-protected DAB, b) recovering the N-protected DAB from the biocatalytic reaction mixture c) converting the N-protected DAB into DAB,
A sampling method of recycled raw material, the method comprising: a process of primarily crushing recycled raw material; characterised in that; the sampling method of recycled raw material further comprises a process of separating primarily crushed raw material into three components, "scrap iron ", "scrap aluminum ", and "recycled raw material component other than scrap iron and scrap aluminum "; a process of performing a primary sample reduction of "the recycled raw material component other than scrap iron and scrap aluminum " which is separated at least after the primary crushing process; a process of secondarily crushing "the recycled raw material component other than scrap iron and scrap aluminum ", which is subjected to the primary sample reduction, into a size less than that in the primary crushing process and performing a secondary sample reduction of "the recycled raw material component other than scrap iron and scrap aluminum " which is secondarily crushed; a process of obtaining a weight ratio of the three components, "scrap iron ", "scrap aluminum ", and "the recycled raw material component other than scrap iron and scrap aluminum " which are primarily crushed; and a mixing process of mixing "scrap iron ", "scrap aluminum ", and "the recycled raw material component other than scrap iron and scrap aluminum " which is subjected to the secondary sample reduction at a mixing ratio corresponding to the weight ratio obtained in the previous process, wherein a mixture obtained in the mixing process is set as an analysis sample. a process of primarily crushing recycled raw material; characterised in that; the sampling method of recycled raw material further comprises a process of separating primarily crushed raw material into three components, "scrap iron ", "scrap aluminum ", and "recycled raw material component other than scrap iron and scrap aluminum "; a process of performing a primary sample reduction of "the recycled raw material component other than scrap iron and scrap aluminum " which is separated at least after the primary crushing process; a process of secondarily crushing "the recycled raw material component other than scrap iron and scrap aluminum ", which is subjected to the primary sample reduction, into a size less than that in the primary crushing process and performing a secondary sample reduction of "the recycled raw material component other than scrap iron and scrap aluminum " which is secondarily crushed; a process of obtaining a weight ratio of the three components, "scrap iron ", "scrap aluminum ", and "the recycled raw material component other than scrap iron and scrap aluminum " which are primarily crushed; and a mixing process of mixing "scrap iron ", "scrap aluminum ", and "the recycled raw material component other than scrap iron and scrap aluminum " which is subjected to the secondary sample reduction at a mixing ratio corresponding to the weight ratio obtained in the previous process, wherein a mixture obtained in the mixing process is set as an analysis sample.
A monitoring device configured to be attached to a subject, the monitoring device comprising: a photoplethysmography sensor (24, 34) configured to measure multiple types of physiological information from the subject including heart rate; and a processor coupled to the PPG sensor (24, 34), wherein the processor is configured to receive and analyze signals produced by the PPG sensor (24, 34), and wherein the processor is configured to: determine a stress level of the subject based on measured heart rate level; characterized in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase the number of types of physiological information measured from the subject and to increase the signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease the number of types of physiological information measured from the subject and to decrease the signal analysis frequency. a photoplethysmography sensor (24, 34) configured to measure multiple types of physiological information from the subject including heart rate; and a processor coupled to the PPG sensor (24, 34), wherein the processor is configured to receive and analyze signals produced by the PPG sensor (24, 34), and wherein the processor is configured to: determine a stress level of the subject based on measured heart rate level; characterized in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase the number of types of physiological information measured from the subject and to increase the signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease the number of types of physiological information measured from the subject and to decrease the signal analysis frequency. in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase the number of types of physiological information measured from the subject and to increase the signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease the number of types of physiological information measured from the subject and to decrease the signal analysis frequency.
An oxygen sensor system including an oxygen sensor and associated circuitry (2,3) connected thereto, said an oxygen sensor including a reference cell, said associated circuitry (2,3) configured to measure the impedance of said reference cell at time intervals, wherein said time intervals include a random component.
A method of determining the refrigerant conduit connections between indoor units (30, 40, 50, 60) and control valves (71, 72, 73, 74) in a multi air conditioner system comprising an outdoor unit, a plurality of indoor units (30, 40, 50, 60), a plurality of refrigerant paths between the indoor units (30, 40, 50, 60) to the outdoor unit and refrigerant control valves (71, 72, 73, 74) in respective ones of said refrigerant paths, the method comprising: measuring an outdoor temperature at the outdoor unit; closing only one of the said refrigerant control valves (71, 72, 73, 74) present in the system whilst keeping the other ones of the said refrigerant control valves (71,72,73,74) open by an unchanged amount; operating the air conditioner system; determining the indoor unit (30, 40, 50, 60) controlled by the closed refrigerant control valve (71, 72, 73, 74) by detecting a change in temperature at an indoor unit (30, 40, 50, 60) between before the closing of the closed refrigerant control valve (71, 72, 73, 74) and a predetermined time after the closing of the closed refrigerant control valve (71, 72, 73, 74), and by comparing said change in temperature to a reference value; and selecting heating or cooling for said operation of the air conditioner system in dependence of the outdoor temperature at the outdoor unit, wherein cooling is performed when said outdoor temperature is higher than or equal to a reference temperature but otherwise heating is performed. measuring an outdoor temperature at the outdoor unit; closing only one of the said refrigerant control valves (71, 72, 73, 74) present in the system whilst keeping the other ones of the said refrigerant control valves (71,72,73,74) open by an unchanged amount; operating the air conditioner system; determining the indoor unit (30, 40, 50, 60) controlled by the closed refrigerant control valve (71, 72, 73, 74) by detecting a change in temperature at an indoor unit (30, 40, 50, 60) between before the closing of the closed refrigerant control valve (71, 72, 73, 74) and a predetermined time after the closing of the closed refrigerant control valve (71, 72, 73, 74), and by comparing said change in temperature to a reference value; and selecting heating or cooling for said operation of the air conditioner system in dependence of the outdoor temperature at the outdoor unit, wherein cooling is performed when said outdoor temperature is higher than or equal to a reference temperature but otherwise heating is performed.
A device for milling and cleaning a milling zone in a coffee machine which includes an infusion chamber, the device (2() being designed to be disposed above the infusion chamber, the device comprising: - a body including: o a grinding chamber receiving beans to be milled; and, o a discharge outlet for the grounds - a millstone type grinder installed in the grinding chamber for milling the beans; - a liquid distribution device distributing a liquid to the infusion chamber and comprising at least one liquid inflow opening characterized in that the liquid inflow opening is oriented toward the discharge outlet in the direction of a portion at least of an external perimeter of the millstone grinder to distribute to it a flow of liquid. - a body including: o a grinding chamber receiving beans to be milled; and, o a discharge outlet for the grounds o a grinding chamber receiving beans to be milled; and, o a discharge outlet for the grounds - a millstone type grinder installed in the grinding chamber for milling the beans; - a liquid distribution device distributing a liquid to the infusion chamber and comprising at least one liquid inflow opening
A method for establishing connections in a virtual connection environment comprising; establishing a Virtual Connect Domain boundary, said boundary comprising; a plurality of systems [110, 111, 310]; a plurality of stacking links configured to interconnect the plurality of systems [120, 121]; a plurality of uplinks for connecting the plurality of systems to at least one external system [130, 230, 330]; and a switch configured to connect the uplinks to the at least one external system; and characterised by: selecting the switch as a root bridge; converging on a stable topology using a spanning tree protocol based on the selection of the switch as the root bridge; and operating the switch to pass through the plurality of uplinks to connect to the at least one external system. a plurality of systems [110, 111, 310]; a plurality of stacking links configured to interconnect the plurality of systems [120, 121]; a plurality of uplinks for connecting the plurality of systems to at least one external system [130, 230, 330]; and a switch configured to connect the uplinks to the at least one external system; selecting the switch as a root bridge; converging on a stable topology using a spanning tree protocol based on the selection of the switch as the root bridge; and operating the switch to pass through the plurality of uplinks to connect to the at least one external system.
An automatic plasticizing equipment for sheets employing a first plasticizer film and a second plasticizer film, and in which said sheets have codes, readable by machine with dimension information associated to said sheets, said equipment being characterized in that said sheets are constituted by image sheets and the codes are constituted by enhanced sheet codes, having dimension and finishing information associated to said image sheets; in which the first plasticizer film unwinds from a first film spool, while the second plasticizer film unwinds from a second film spool for pre-forming plasticized image sheets (31, 44) of different typologies; in which said equipment further comprises a first plasticizing device for the first plasticizer film, a second plasticizing device, downstream of the first plasticizing device for the second plasticizer film; and in which the electronic control unit responds to the dimension and finishing information from the enhanced sheet codes for selectively activating the first plasticizing device or the second plasticizing device or to leave the plasticizing devices deactivated so as to obtain plasticized image sheets (31, 44) of different typologies of plasticization or non-plasticized image sheets.
A housing assembly comprising a base, a front assembly configured to engage with the base, a latch that protrudes inward from an inner surface of one of the front assembly and the base, and a cam supported on the other of the front assembly and the base, wherein the cam is rotatable about a rotational axis and includes a cam surface that is engaged with the latch in such a way that rotation of the cam about the rotational axis results in a translation of the front assembly relative to the base in a direction parallel to the rotational axis. a base, a front assembly configured to engage with the base, a latch that protrudes inward from an inner surface of one of the front assembly and the base, and a cam supported on the other of the front assembly and the base, wherein the cam is rotatable about a rotational axis and includes a cam surface that is engaged with the latch in such a way that rotation of the cam about the rotational axis results in a translation of the front assembly relative to the base in a direction parallel to the rotational axis.
A brazed heat exchanger for exchanging heat between at least two media, the heat exchanger comprising a number of heat exchanger plates (100; 200) comprising a pressed pattern of ridges and grooves adapted to form flow channels for media to exchange heat flowing through said flow channels, the plates (100; 200) further comprising circular high pressure port openings (130; 220; 300) and circular low pressure port openings (120; 310) arranged to allow fluid communication with said flow channels, wherein at least two of the port openings (130; 220; 300) are high pressure port openings (130; 220; 300) and at least two of the port openings (120; 310) are low pressure port openings (120; 310), wherein a skirt extends around the periphery of the heat exchanger plates (100; 200) the skirts of neighboring plates (100; 200) being arranged to contact one another in an overlapping manner in order to obtain a connection sealing the flow channels, characterized in that the high pressure port openings (130; 220; 300) are placed on a peninsula surrounded by the skirt over at least 100 degrees and in that the high pressure port openings (130; 220; 300) have a significantly smaller diameter than the low pressure port openings (120; 310).
Container for receiving and/or collecting waste (1; 10) comprising a tank (2; 11) and optionally a lid or a cover made of plastic, the tank and/or the optional lid or cover comprising at least one transparent region (2; 3; 6; 7; 11) arranged to make the inside of the tank visible from the outside, characterised in that the transparent region is made of PET.
A method for use in a wireless transmit/receive unit, WTRU, which is configured for machine type communications, MTC, comprising: determining (504, 604, 704, 804, 904) a designation of the WTRU in response to an event, wherein the WTRU belongs to a group of WTRUs and the designation is with respect to the group; performing registration (508, 608, 708, 808, 908) with a MTC server for all members of the group on a condition that the WTRU is a designated WTRU; obtaining connectivity information (518, 520, 522, 618, 620, 622, 718, 720, 722, 818, 820, 822, 918, 920, 922); uploading data to the MTC server (526, 626, 726, 826, 926); the method characterised by: upon the WTRU being a last WTRU in the group that transmits information, performing one of: releasing radio resources and Internet Protocol, IP, addresses and maintaining registration (534, 634, 734); or releasing radio resources and maintaining IP addresses and registration (834, 934); and entering a sleep cycle (580, 660, 760, 860, 960). determining (504, 604, 704, 804, 904) a designation of the WTRU in response to an event, wherein the WTRU belongs to a group of WTRUs and the designation is with respect to the group; performing registration (508, 608, 708, 808, 908) with a MTC server for all members of the group on a condition that the WTRU is a designated WTRU; obtaining connectivity information (518, 520, 522, 618, 620, 622, 718, 720, 722, 818, 820, 822, 918, 920, 922); uploading data to the MTC server (526, 626, 726, 826, 926); the method characterised by: upon the WTRU being a last WTRU in the group that transmits information, performing one of: releasing radio resources and Internet Protocol, IP, addresses and maintaining registration (534, 634, 734); or releasing radio resources and maintaining IP addresses and registration (834, 934); and entering a sleep cycle (580, 660, 760, 860, 960). upon the WTRU being a last WTRU in the group that transmits information, performing one of: releasing radio resources and Internet Protocol, IP, addresses and maintaining registration (534, 634, 734); or releasing radio resources and maintaining IP addresses and registration (834, 934); and releasing radio resources and Internet Protocol, IP, addresses and maintaining registration (534, 634, 734); or releasing radio resources and maintaining IP addresses and registration (834, 934); and entering a sleep cycle (580, 660, 760, 860, 960).
An implantable medical device, comprising: communication circuitry (130, 190) that enables the IMD to communicate via a communication network; and control circuitry configured to execute program code to cause the control circuitry to: determine whether the IMD is capable of communicating via the communication network; request, from a computing device connected to the communication network, a first identifier of current firmware that is stored on the computing device when it is determined that the IMD is capable of communicating via the communication network; compare the first identifier to a second identifier of firmware that is installed on the IMD; prior to expiration of a communication timer, reset the communication timer when the first identifier matches the second identifier; and after expiration of the communication timer, prevent the IMD from communicating via the communication network. communication circuitry (130, 190) that enables the IMD to communicate via a communication network; and control circuitry configured to execute program code to cause the control circuitry to: determine whether the IMD is capable of communicating via the communication network; request, from a computing device connected to the communication network, a first identifier of current firmware that is stored on the computing device when it is determined that the IMD is capable of communicating via the communication network; compare the first identifier to a second identifier of firmware that is installed on the IMD; prior to expiration of a communication timer, reset the communication timer when the first identifier matches the second identifier; and after expiration of the communication timer, prevent the IMD from communicating via the communication network. determine whether the IMD is capable of communicating via the communication network; request, from a computing device connected to the communication network, a first identifier of current firmware that is stored on the computing device when it is determined that the IMD is capable of communicating via the communication network; compare the first identifier to a second identifier of firmware that is installed on the IMD; prior to expiration of a communication timer, reset the communication timer when the first identifier matches the second identifier; and after expiration of the communication timer, prevent the IMD from communicating via the communication network.