mhurhangee/patent-ind-claim-en huggingface dataset:
A slitting machine for removing a strip from a sheet of material, the slitting machine comprising: a blade assembly comprising: first and second cutting blades configured to cut the sheet of material to define the strip ; a perforating blade arranged between the first and second cutting blades , the perforating blade configured to perforate the sheet of material to define an end of the strip , wherein the perforating blade has a greater diameter than the first and second cutting blades ; and a shaft , wherein the first and second cutting blades and the perforating blade are coupled to the shaft ; the slitting machine further comprising: a mechanism configured to move the shaft relative to the sheet of material to selectively engage the cutting blades and/or the perforating blade with the sheet of material. a blade assembly comprising: first and second cutting blades configured to cut the sheet of material to define the strip ; a perforating blade arranged between the first and second cutting blades , the perforating blade configured to perforate the sheet of material to define an end of the strip , wherein the perforating blade has a greater diameter than the first and second cutting blades ; and a shaft , wherein the first and second cutting blades and the perforating blade are coupled to the shaft ; first and second cutting blades configured to cut the sheet of material to define the strip ; a perforating blade arranged between the first and second cutting blades , the perforating blade configured to perforate the sheet of material to define an end of the strip , wherein the perforating blade has a greater diameter than the first and second cutting blades ; and a shaft , wherein the first and second cutting blades and the perforating blade are coupled to the shaft ; the slitting machine further comprising: a mechanism configured to move the shaft relative to the sheet of material to selectively engage the cutting blades and/or the perforating blade with the sheet of material.
A blood measuring device comprising: a reagent preparation unit comprising a high concentration reagent reservoir part which stores high concentration reagent, a pure water reservoir part which stores pure water for diluting the high concentration reagent, and a reagent reservoir part which stores low concentration reagent prepared by mixing the pure water and the high concentration reagent; and a measurement unit comprising a sample preparing part which prepares a measurement sample by mixing a blood sample and the low concentration reagent, and a measuring part which measures red blood cells in the measurement sample, the blood measuring device being characterized in that the measurement unit further comprises a fluid supplying part which supplies the pure water and the low concentration reagent and is connected to the pure water reservoir part and the reagent reservoir part ; and that the blood measuring device further comprises a controller which controls the operation of the fluid supplying part , wherein the controller is configured to control the fluid supplying part to wash one or more parts of the measurement unit least affecting the measurement results using the pure water, and wash other parts of the measurement unit affecting the measurement results using the low concentration reagent, when the measurement unit performs washing operation. a reagent preparation unit comprising a high concentration reagent reservoir part which stores high concentration reagent, a pure water reservoir part which stores pure water for diluting the high concentration reagent, and a reagent reservoir part which stores low concentration reagent prepared by mixing the pure water and the high concentration reagent; and a measurement unit comprising a sample preparing part which prepares a measurement sample by mixing a blood sample and the low concentration reagent, and a measuring part which measures red blood cells in the measurement sample, the blood measuring device being characterized in that the measurement unit further comprises a fluid supplying part which supplies the pure water and the low concentration reagent and is connected to the pure water reservoir part and the reagent reservoir part ; and that the blood measuring device further comprises a controller which controls the operation of the fluid supplying part , wherein the controller is configured to control the fluid supplying part to wash one or more parts of the measurement unit least affecting the measurement results using the pure water, and wash other parts of the measurement unit affecting the measurement results using the low concentration reagent, when the measurement unit performs washing operation.
An arm rest for a vehicle seat, said arm rest comprising a pivotable lid and an arm rest compartment having an opening , said opening having a first and a second end , said lid having a forward end and a rearward end , reference to said forward or rearward end of said arm rest being meant with respect to a vehicle seat associated with said arm rest, said lid being displaceable between an opened position and a closed position, wherein said lid is pivotally arranged so that when being in said opened position, said forward end of said lid is arranged proximal of said opening of said arm rest compartment and said rearward end of said lid is arranged distal to said opening of said arm rest compartment with respect to a vertical axis (x), such that said forward end of said lid is pointing downwards and said rearward end of said lid pointing upwards, wherein said lid is pivotally arranged to said arm rest compartment via a hinge arm , said hinge arm having a first and a second end , and wherein said forward end of said lid is enabled to slide adjacent to, or in the proximity of, said opening of said arm rest compartment , when displacing said lid from said closed position to said open position, during which displacement said rearward end of said lid is vertically displaced with respect to said vertical axis (x) in an upwardly direction.
The use of a polysiloxane having a plurality of siloxane groups and at least one tertiary amide group covalently linked as a pending and/or terminal group to the polysiloxane, as a defoaming agent in a non-aqueous liquid composition, and wherein the polysiloxane does not contain fluorinated organic groups.
An air conditioner (100; 200) having a fan inside and being configured to blow, from a blow-out port , air sucked by the fan from a suction port , the air conditioner comprising: a vertical air deflector plate rotatably provided at the blow-out port ; and an auxiliary air deflector plate connected in substantially parallel to the vertical air deflector plate via a plurality of support pieces (109; 209), wherein the vertical air deflector plate is longer in a first direction along a flow of air blown out from the blow-out port than the auxiliary deflector plate , each of the plurality of support pieces (109; 209) has a cross-sectional area A0 on a connection surface S0 connected to the auxiliary air deflector plate , and has a cross-sectional area A1 on a surface S1 parallel to the vertical air deflector plate , characterized in that at least one support piece (109; 209) of the plurality of support pieces (109; 209) has a relationship of A0 > A1. a vertical air deflector plate rotatably provided at the blow-out port ; and an auxiliary air deflector plate connected in substantially parallel to the vertical air deflector plate via a plurality of support pieces (109; 209), wherein the vertical air deflector plate is longer in a first direction along a flow of air blown out from the blow-out port than the auxiliary deflector plate , each of the plurality of support pieces (109; 209) has a cross-sectional area A0 on a connection surface S0 connected to the auxiliary air deflector plate , and has a cross-sectional area A1 on a surface S1 parallel to the vertical air deflector plate , characterized in that at least one support piece (109; 209) of the plurality of support pieces (109; 209) has a relationship of A0 > A1.
A power management system for an audio system comprising: a processor; a threshold comparator configured to operate with the processor to develop and monitor a threshold in real-time based on a measured actual parameter of an audio signal driving a loudspeaker and an estimated operational characteristic of the loudspeaker; and a limiter in communication with the threshold comparator, the limiter designed to be positioned between an audio source supplying the audio signal and the loudspeaker in receipt of the audio signal, the limiter configured to operate with the processor to selectively adjust the audio signal in real-time based on the threshold. a processor; a threshold comparator configured to operate with the processor to develop and monitor a threshold in real-time based on a measured actual parameter of an audio signal driving a loudspeaker and an estimated operational characteristic of the loudspeaker; and a limiter in communication with the threshold comparator, the limiter designed to be positioned between an audio source supplying the audio signal and the loudspeaker in receipt of the audio signal, the limiter configured to operate with the processor to selectively adjust the audio signal in real-time based on the threshold.
A method for processing a measured signal from a mass spectrometer, comprising: receiving the measured signal from the mass spectrometer using a computer; selecting a mathematical noise model using the computer; estimating an absolute noise for each of a plurality of points of the measured signal using the computer; calculating an expected noise value from the mathematical noise model for each of the plurality of points using the computer; characterized by : calculating an array of values by dividing each of a plurality of points of the absolute noise by a corresponding expected noise value from the plurality of expected noise values using the computer; and calculating the relative noise by taking a standard deviation of a plurality of points of the array to predict an expected noise range at any point and to determine the significance of the measured signal using the computer. receiving the measured signal from the mass spectrometer using a computer; selecting a mathematical noise model using the computer; estimating an absolute noise for each of a plurality of points of the measured signal using the computer; calculating an expected noise value from the mathematical noise model for each of the plurality of points using the computer; characterized by : calculating an array of values by dividing each of a plurality of points of the absolute noise by a corresponding expected noise value from the plurality of expected noise values using the computer; and calculating the relative noise by taking a standard deviation of a plurality of points of the array to predict an expected noise range at any point and to determine the significance of the measured signal using the computer. calculating an array of values by dividing each of a plurality of points of the absolute noise by a corresponding expected noise value from the plurality of expected noise values using the computer; and calculating the relative noise by taking a standard deviation of a plurality of points of the array to predict an expected noise range at any point and to determine the significance of the measured signal using the computer.
Actuation device for actuating a closure device for opening and closing a discharge opening , in particular for a sanitary receiving container , such as a sink, wash basin or the like, wherein the actuation device has an electrically operable drive unit and at least one actuation element for actuating the closure device , wherein the closure device is constructed to open and close the discharge opening , and wherein the actuation device comprises a sensor device having at least one sensor element which is actuated in a contactless manner, preferably wherein the at least one sensor element is constructed as a capacitive sensor element and/or as an acoustic sensor element , characterised in that the sensor device comprises a plurality of sensor elements which are actuated in a contactless manner and which have different actuation types and/or different orientations of the detection face .
A method of wireless communication, comprising: transmitting , after a transmission of a beacon , a first message different from the beacon and for reserving a communication medium utilizing a first transmission characteristic such that the first message is decodable by at least a first subset of a plurality of wireless devices, wherein the first message includes a duration field and wherein detection of the first message by the first subset of wireless devices silences the first subset of wireless devices for a time interval identified in the duration field; and subsequently transmitting a second message for clearing a reservation of the communication medium utilizing a second transmission characteristic such that the second message is decodable by at least a second subset of the plurality of wireless devices and not the first subset of the plurality of wireless devices, thereby clearing access to at least one communication channel for the second subset of the plurality of wireless devices. transmitting , after a transmission of a beacon , a first message different from the beacon and for reserving a communication medium utilizing a first transmission characteristic such that the first message is decodable by at least a first subset of a plurality of wireless devices, wherein the first message includes a duration field and wherein detection of the first message by the first subset of wireless devices silences the first subset of wireless devices for a time interval identified in the duration field; and subsequently transmitting a second message for clearing a reservation of the communication medium utilizing a second transmission characteristic such that the second message is decodable by at least a second subset of the plurality of wireless devices and not the first subset of the plurality of wireless devices, thereby clearing access to at least one communication channel for the second subset of the plurality of wireless devices.
Method for isomerizing components of a hop substrate (H) in a beer manufacturing method, which includes a manufacturing and a thermal treatment of a wort (W), having the steps: (a) mixing of the hop substrate (H) with an isomerization substrate (I), thereby obtaining a mixture (G); wherein the hop substrate (H) contains at least one isomerizable hop component, preferably at least one α acid and/or at least one β acid; wherein the isomerization substrate (I) contains a lauter wort or consists thereof; wherein the isomerization substrate (I) has an extract content in the range of 0.2 to 8 °P; and wherein the isomerization substrate (I) has a pH value of at least 5.6, preferably at least 7.0; (b) setting a temperature (TG) of the mixture (G) obtained in step (a) to a temperature within a temperature range (TB), which includes the temperatures from 15 °C below to 2 °C, preferably from 15 °C below to 5 °C, below a maximum temperature (TMAX) attained by the wort (W) during the thermal treatment of the same in the beer manufacturing method; (c) maintaining the temperature of the mixture (G) obtained in step (b) within the range (TB) for a predetermined period of time (tI); wherein the period of time (tI) is longer by 20 to 50 minutes than a period of time (tK) of the thermal treatment of the wort (W) in the beer manufacturing method; and (d) preferably, at least partly separating of solid components from the mixture (G) obtained in step (c). (a) mixing of the hop substrate (H) with an isomerization substrate (I), thereby obtaining a mixture (G); wherein the hop substrate (H) contains at least one isomerizable hop component, preferably at least one α acid and/or at least one β acid; wherein the isomerization substrate (I) contains a lauter wort or consists thereof; wherein the isomerization substrate (I) has an extract content in the range of 0.2 to 8 °P; and wherein the isomerization substrate (I) has a pH value of at least 5.6, preferably at least 7.0; wherein the hop substrate (H) contains at least one isomerizable hop component, preferably at least one α acid and/or at least one β acid; wherein the isomerization substrate (I) contains a lauter wort or consists thereof; wherein the isomerization substrate (I) has an extract content in the range of 0.2 to 8 °P; and wherein the isomerization substrate (I) has a pH value of at least 5.6, preferably at least 7.0; (b) setting a temperature (TG) of the mixture (G) obtained in step (a) to a temperature within a temperature range (TB), which includes the temperatures from 15 °C below to 2 °C, preferably from 15 °C below to 5 °C, below a maximum temperature (TMAX) attained by the wort (W) during the thermal treatment of the same in the beer manufacturing method; (c) maintaining the temperature of the mixture (G) obtained in step (b) within the range (TB) for a predetermined period of time (tI); wherein the period of time (tI) is longer by 20 to 50 minutes than a period of time (tK) of the thermal treatment of the wort (W) in the beer manufacturing method; and (d) preferably, at least partly separating of solid components from the mixture (G) obtained in step (c).
A slab assembly comprising: two clad raw workpieces , each clad raw workpiece including one base metal plate having at least one cleaned surface and one cladding plate stacked on the cleaned surface of the base metal plate and whose surface stacked on the cleaned surface of the base metal plate is cleaned, four sides of the cladding plate being shorter than four sides of the base metal plate , the two clad raw workpieces being disposed with the cladding plates thereof facing each other; a release material interposed between the cladding plates ; and a spacer disposed along the four sides of the cladding plates , further comprising metal welds formed along abutting surfaces between the spacer and the base metal plates , the metal welds having respective deepest portions located inside the respective base metal plates; each of the abutting surfaces having a portion in which corresponding one of the metal welds forms a joint located in a region extending from a surface of the spacer to a position located at 500 or more and less than 1000 of a thickness T 5 of the spacer; and a width W, mm, of each of the metal welds along a side surface of corresponding one of the base metal plates , a length D, mm, of a straight line M connecting a center of the width W of the each of the metal welds and the deepest portion thereof, and an angle A, °, between the straight line M and corresponding one of the abutting surfaces satisfy the following formulas and : D/W ≥ 5 , and 1 ≤ A ≤ 15 two clad raw workpieces , each clad raw workpiece including one base metal plate having at least one cleaned surface and one cladding plate stacked on the cleaned surface of the base metal plate and whose surface stacked on the cleaned surface of the base metal plate is cleaned, four sides of the cladding plate being shorter than four sides of the base metal plate , the two clad raw workpieces being disposed with the cladding plates thereof facing each other; a release material interposed between the cladding plates ; and a spacer disposed along the four sides of the cladding plates , further comprising metal welds formed along abutting surfaces between the spacer and the base metal plates , the metal welds having respective deepest portions located inside the respective base metal plates; each of the abutting surfaces having a portion in which corresponding one of the metal welds forms a joint located in a region extending from a surface of the spacer to a position located at 500 or more and less than 1000 of a thickness T 5 of the spacer; and a width W, mm, of each of the metal welds along a side surface of corresponding one of the base metal plates , a length D, mm, of a straight line M connecting a center of the width W of the each of the metal welds and the deepest portion thereof, and an angle A, °, between the straight line M and corresponding one of the abutting surfaces satisfy the following formulas and : D/W ≥ 5 , and 1 ≤ A ≤ 15
A method, comprising: performing, by a processor of a user equipment, in the following also referred to as UE, a 5G Mobility Management, 5GMM, registration procedure with a wireless network after an inter-system change ; and detecting, by the processor, a failure of the 5G Mobility Management, 5GMM, registration procedure ; characterized by : responsive to the detecting, reattempting, by the processor, the 5G Mobility Management, 5GMM, registration procedure earlier than expiry of a first timer T3511 . performing, by a processor of a user equipment, in the following also referred to as UE, a 5G Mobility Management, 5GMM, registration procedure with a wireless network after an inter-system change ; and detecting, by the processor, a failure of the 5G Mobility Management, 5GMM, registration procedure ; characterized by : responsive to the detecting, reattempting, by the processor, the 5G Mobility Management, 5GMM, registration procedure earlier than expiry of a first timer T3511 .
A distribution control system , comprising: a browser configured to acquire web content data ([XYZ]) as image data from a web server and render said web content data ([XYZ]) to generate frame data ([XYZ]) as still image data (i200); a converting unit comprising an encoder configured to divide the frame data ([XYZ]) into a plurality of pieces of frame data ([X], [Y], [Z]) and encode the pieces of frame data ([X], [Y], [Z]), thereby converting them into a plurality of pieces of video data ([X], [Y], [Z]); and a transmitting unit configured to transmit each of the pieces of video data ([X], [Y], [Z]) to one of a plurality of different communication terminals. a browser configured to acquire web content data ([XYZ]) as image data from a web server and render said web content data ([XYZ]) to generate frame data ([XYZ]) as still image data (i200); a converting unit comprising an encoder configured to divide the frame data ([XYZ]) into a plurality of pieces of frame data ([X], [Y], [Z]) and encode the pieces of frame data ([X], [Y], [Z]), thereby converting them into a plurality of pieces of video data ([X], [Y], [Z]); and a transmitting unit configured to transmit each of the pieces of video data ([X], [Y], [Z]) to one of a plurality of different communication terminals.
Apparatus for manufacturing a capsule with a sealable opening for use in a coffee machine, comprising a capsule having a generally frusto-conical form with an upper surface and a lower surface, an annular flange being provided at the lower surface, wherein an annular seal is provided on the annular flange, the annular seal comprising a cellulose material such as paper that deforms in use, wherein the apparatus comprises gasket application means , which applies a gasket to the capsule on the flange, characterised in that the apparatus further comprises gasket detection means for detecting the presence of a gasket on the capsule, capsule selection means being provided to enable capsules without a gasket to be rejected and capsules with a gasket detected to be packed.