mhurhangee/patent-ind-claim-en huggingface dataset:
A method for secure interaction between a companion terminal with an embedded Universal Integrated Circuit Card, eUICC, and a primary terminal, characterized in that both the companion terminal and the primary terminal support an Hyper Text Transfer Protocol over Secure Socket Layer, HTTPS, wherein the method comprises: generating, by the companion terminal, an HTTPS Uniform Resource Locator, URL, comprising address information of the companion terminal and security information; indicating or indirectly indicating , by the companion terminal, the HTTPS URL to the primary terminal, so that the primary terminal establishes a local security application session between the primary terminal and the companion terminal according to the address information and the security information; and receiving , by the companion terminal by using the local security application session, an operation instruction for the eUICC that is sent by the primary terminal. generating, by the companion terminal, an HTTPS Uniform Resource Locator, URL, comprising address information of the companion terminal and security information; indicating or indirectly indicating , by the companion terminal, the HTTPS URL to the primary terminal, so that the primary terminal establishes a local security application session between the primary terminal and the companion terminal according to the address information and the security information; and receiving , by the companion terminal by using the local security application session, an operation instruction for the eUICC that is sent by the primary terminal.
A probe assembly comprising: an inlet for receiving an eluent from a chromatography device; an outlet for delivering the eluent to an ion source of a mass spectrometer; and an attachment device for attaching the outlet to the mass spectrometer; wherein the outlet comprises an electrically conductive capillary and an electrically conductive member surrounding at least part of the electrically conductive capillary ; wherein the probe assembly comprises an insulating fluid line for transporting eluent from the inlet to the electrically conductive capillary and a joint between the insulating fluid line and the electrically conductive capillary , wherein the joint is downstream of the attachment device ; and wherein the electrically conductive member is arranged to be in electrical connection with the electrically conductive capillary ; the probe assembly characterised in that the electrically conductive member is arranged to receive a voltage upon connection of the attachment device to the mass spectrometer through an electrically conductive ferrule . an inlet for receiving an eluent from a chromatography device; an outlet for delivering the eluent to an ion source of a mass spectrometer; and an attachment device for attaching the outlet to the mass spectrometer; wherein the outlet comprises an electrically conductive capillary and an electrically conductive member surrounding at least part of the electrically conductive capillary ; wherein the probe assembly comprises an insulating fluid line for transporting eluent from the inlet to the electrically conductive capillary and a joint between the insulating fluid line and the electrically conductive capillary , wherein the joint is downstream of the attachment device ; and wherein the electrically conductive member is arranged to be in electrical connection with the electrically conductive capillary ; the probe assembly characterised in that the electrically conductive member is arranged to receive a voltage upon connection of the attachment device to the mass spectrometer through an electrically conductive ferrule .
A process for producing a surface-treated calcium carbonate with improved stability in environments with a pH of 4.5 to 7, wherein the process comprises the steps of: i) providing calcium carbonate, ii) providing at least one acid having a pK a value from 0 to 8, when measured at 20°C, iii) providing at least one conjugate base, iv) contacting the calcium carbonate of step i), the at least one acid of step ii), and the at least one conjugate base of step iii) to form surface-treated calcium carbonate, wherein the at least one acid of step ii) and/or the at least one conjugate base of step iii) are provided in form of an aqueous solution, wherein the at least one acid of step ii) is selected from citric acid and acidic salts thereof, and wherein the at least one conjugate base of step iii) is an alkali metal salt and/or alkaline earth metal salt of phosphoric acid. i) providing calcium carbonate, ii) providing at least one acid having a pK a value from 0 to 8, when measured at 20°C, iii) providing at least one conjugate base, iv) contacting the calcium carbonate of step i), the at least one acid of step ii), and the at least one conjugate base of step iii) to form surface-treated calcium carbonate,
A tire for running on rough terrain for which an intended tire rotational direction (N) is specified, and which comprises a tread portion provided with crown blocks disposed on the tire equator (C), wherein each of the crown blocks comprises a V-shaped crown block main portion which bends convexly toward a circumferential direction opposite to the intended tire rotation direction (N), and only two crown fin portions projecting from the crown block main portion toward the above-said circumferential direction opposite to the intended tire rotation direction (N), and a connection portion (K) between the crown block main portion and each of the crown fin portions is provided with a shallow groove for promoting deformation of a part of the crown fin portion on the connection portion (K) side, characterized in that the depth (d1) of the shallow groove is in a range from 5% to 25% of the radial height (H1) of the crown block main portion . each of the crown blocks comprises a V-shaped crown block main portion which bends convexly toward a circumferential direction opposite to the intended tire rotation direction (N), and only two crown fin portions projecting from the crown block main portion toward the above-said circumferential direction opposite to the intended tire rotation direction (N), and a V-shaped crown block main portion which bends convexly toward a circumferential direction opposite to the intended tire rotation direction (N), and only two crown fin portions projecting from the crown block main portion toward the above-said circumferential direction opposite to the intended tire rotation direction (N), and a connection portion (K) between the crown block main portion and each of the crown fin portions is provided with a shallow groove for promoting deformation of a part of the crown fin portion on the connection portion (K) side, characterized in that the depth (d1) of the shallow groove is in a range from 5% to 25% of the radial height (H1) of the crown block main portion .
Plant-side automation unit , wherein the plant-side automation unit is configured, within a time t freq , to perform a determination of results of a first process control algorithm based on process input variables N read in by time t=0, wherein the plant-side automation unit is configured to read in the process input variables M at time t=0 and send them to a processing unit external to the plant for processing, wherein the plant-side automation unit is configured to receive results of a second process control algorithm from the processing unit external to the plant, wherein the plant-side automation unit is configured to check whether the results of the second process control algorithm were received within a time t<t freq or t=t freq , wherein t freq corresponds to a predetermined sampling time or a defined cycle time, wherein the plant-side automation unit is configured to apply the results of the second process control algorithm to the process, where these results were received within time t<t freq or t=t freq , wherein the plant-side automation unit is configured to apply the results of the first process control algorithm to the process, where the results of the second process control algorithm were received within time t<t freq . wherein the plant-side automation unit is configured, within a time t freq , to perform a determination of results of a first process control algorithm based on process input variables N read in by time t=0, wherein the plant-side automation unit is configured to read in the process input variables M at time t=0 and send them to a processing unit external to the plant for processing, wherein the plant-side automation unit is configured to receive results of a second process control algorithm from the processing unit external to the plant, wherein the plant-side automation unit is configured to check whether the results of the second process control algorithm were received within a time t<t freq or t=t freq , wherein t freq corresponds to a predetermined sampling time or a defined cycle time, wherein the plant-side automation unit is configured to apply the results of the second process control algorithm to the process, where these results were received within time t<t freq or t=t freq , wherein the plant-side automation unit is configured to apply the results of the first process control algorithm to the process, where the results of the second process control algorithm were received within time t<t freq .
A method for managing communication for a plurality of computing devices, wherein at least one traffic management device (TMD) is operative to perform actions, comprising: receiving a message from a server device (110-111) before it is provided to a client device (103-105); adding reverse persistence information to the message, wherein the reverse persistence information identifies the server device (110-111); modifying the message to remove identification of the server device (110-111) and include identification of the TMD ; forwarding the modified message to the client device (103-105); if another message that includes the reverse persistence information is received from the client device (103-105), modifying the other message to remove the reverse persistence information and remove identification of the TMD and include identification of the server device (110-111); and forwarding the modified other message to the server device (110-111) that is identified by the reverse persistence information. receiving a message from a server device (110-111) before it is provided to a client device (103-105); adding reverse persistence information to the message, wherein the reverse persistence information identifies the server device (110-111); modifying the message to remove identification of the server device (110-111) and include identification of the TMD ; forwarding the modified message to the client device (103-105); if another message that includes the reverse persistence information is received from the client device (103-105), modifying the other message to remove the reverse persistence information and remove identification of the TMD and include identification of the server device (110-111); and forwarding the modified other message to the server device (110-111) that is identified by the reverse persistence information.
A protective helmet having multiple protective zones, comprising: an inner shell having a first inner surface and a first outer surface ; a padded inner lining attached to said first inner surface; a hard outer shell having a second inner surface and a second outer surface, said hard outer shell functionally attached to said inner shell ; an elastomeric zone between said first outer surface and said second inner surface ; and a plurality of sinusoidal springs positioned in said elastomeric zone , characterized in that said outer shell has at least one window defined by said hard outer shell ; the protective helmet further comprises a force indicator tab in operative contact with at least one end of at least one of said plurality of sinusoidal springs ; and said force indicator tab is moved to said at least one window by said at least one end of said at least one of said plurality of sinusoidal springs when said helmet is impacted with sufficient force. an inner shell having a first inner surface and a first outer surface ; a padded inner lining attached to said first inner surface; a hard outer shell having a second inner surface and a second outer surface, said hard outer shell functionally attached to said inner shell ; an elastomeric zone between said first outer surface and said second inner surface ; and a plurality of sinusoidal springs positioned in said elastomeric zone , characterized in that said outer shell has at least one window defined by said hard outer shell ; the protective helmet further comprises a force indicator tab in operative contact with at least one end of at least one of said plurality of sinusoidal springs ; and said force indicator tab is moved to said at least one window by said at least one end of said at least one of said plurality of sinusoidal springs when said helmet is impacted with sufficient force.
A flame retardant composition comprising (A) 20 to 50 parts by mass of at least one melamine salt selected from the group consisting of melamine orthophosphate, melamine pyrophosphate, and melamine polyphosphate, (B) 50 to 80 parts by mass of at least one piperazine salt selected from the group consisting of piperazine orthophosphate, piperazine pyrophosphate, and piperazine polyphosphate, the sum of the components (A) and (B) being 100 parts by mass, and (C) 1 to 50 parts by mass of β-cyclodextrin.
A roof extension device , able to be placed on the level part of an exterior insulation attached on an existing pinion , such that the device includes a roof support comprising tongues for attaching the support on a pinion at a level part of the pinion , and at a level part of an attached exterior insulation , and such that the roof support further comprises at least one batten-forming means arranged so as to retain tiles.
A computer-implemented method for determining the presence of a biomacromolecule of an organism in a sample comprising the step of comparing an observed mass spectrum of the sample with a theoretical fragment ion spectrum comprising theoretical fragment ion masses; wherein said biomacromolecule is a protein, and wherein said method comprises the steps of: - obtaining an observed mass spectrum of the sample thereby obtaining a set of query peaks; - subtracting the m/z value of every query peak from the theoretical fragment ion masses of a target proteome of said organism obtained by determining theoretical fragment ion spectra comprising theoretical fragment ion masses for the protein sequence of said target proteome; - clustering and scoring the resulting differences, thereby obtaining scores representative of the likelyhood of the presence of a specific protein in said sample; and - assigning the observed mass spectrum to a protein of said proteome based on said scores, thereby identifying the presence of said protein in said sample; wherein said theoretical fragment ion spectra are obtained; - by generating complete theoretical fragment ion masses for the target proteome sequence at a-, b-, or c-ion bond and - x-, y-, or z-ion bond respectively and; - computing error intervals for every fragment ion mass based on error tolerance of the mass spectrometry instrumentation. - obtaining an observed mass spectrum of the sample thereby obtaining a set of query peaks; - subtracting the m/z value of every query peak from the theoretical fragment ion masses of a target proteome of said organism obtained by determining theoretical fragment ion spectra comprising theoretical fragment ion masses for the protein sequence of said target proteome; - clustering and scoring the resulting differences, thereby obtaining scores representative of the likelyhood of the presence of a specific protein in said sample; and - assigning the observed mass spectrum to a protein of said proteome based on said scores, thereby identifying the presence of said protein in said sample; wherein said theoretical fragment ion spectra are obtained; - by generating complete theoretical fragment ion masses for the target proteome sequence at a-, b-, or c-ion bond and - x-, y-, or z-ion bond respectively and; - computing error intervals for every fragment ion mass based on error tolerance of the mass spectrometry instrumentation.
A method for calculating a stimulus for the change of shape of a medical aid, in order to change the shape of the aid from an actual position to a final nominal state, comprising the following steps: - capturing the actual position of the body part to be corrected after a first correction step in a control unit, - comparing the actual position of the body part to be corrected with a nominal position which is saved in the control unit, characterized in that the method further has the following steps: - optionally, capturing the deviation between the actual position and nominal position of the body part to be corrected by the control unit, - calculating the stimulus which has to act on the medical aid in order to execute a second correction step, taking account of the deviation between the actual state and the nominal state of the body part to be corrected, by the control unit, wherein the effect of the stimulus on the medical aid is stored in the control unit. - capturing the actual position of the body part to be corrected after a first correction step in a control unit, - comparing the actual position of the body part to be corrected with a nominal position which is saved in the control unit, - optionally, capturing the deviation between the actual position and nominal position of the body part to be corrected by the control unit, - calculating the stimulus which has to act on the medical aid in order to execute a second correction step, taking account of the deviation between the actual state and the nominal state of the body part to be corrected, by the control unit, wherein the effect of the stimulus on the medical aid is stored in the control unit.
A method to ensure acceptable function of an air guiding device (10; 20; 30) at a vehicle , which vehicle has a longitudinal axis (X) parallel to the normal direction of travel of the vehicle and which vehicle comprises a first vehicle body and a second vehicle body arranged behind the first vehicle body and extending upwards and/or sideways beyond the first vehicle body , whereby the air guiding device (10; 20; 30) is supported by means of the said first vehicle body and can be adjusted relative to the said longitudinal axis (X) for the purpose of reducing air resistance, whereby the air guiding device (10; 20; 30) can be adjusted by means of adjusters , and whereby a parameter that corresponds to the adjustment force required is determined during adjustment of the air guiding device (10; 20; 30), and comprising the following steps: to determine, during a first adjustment process, a time course (R1, R1a) of the said parameter and, under essentially corresponding conditions with respect to the driving of the vehicle during at least one further adjustment process to determine a time course (R2, R3, R2a, R3a) of the said parameter, and to compare the time course of the said parameter during the first adjustment process and during the said, at least one, further adjustment process, characterised by the deviations between time courses of the said parameter determined in this way forming the basis for an assessment of the reliability of the time courses, and wherein in the event that no deviation exists between at least two time courses determined in this way these time courses are consider to be reliable.
An injection molding machine having a co-injection nozzle for transferring melt to a mold cavity , the co-injection nozzle comprising: a nozzle body having an inner flow channel , an outer flow channel , and at least one intermediate flow channel in between the inner and outer flow channels; a valve stem slidably received in the inner flow channel and moveable between an open position and one or more closed positions; wherein, in a first closed position, the valve stem blocks an outlet of the inner flow channel but does not block an outlet of the outer flow channel or an outlet of the at least one intermediate flow channel; wherein respective outlets of the inner channel, the outer channel and the at least one intermediate flow channels are immediately adjacent to one another, characterized in that the nozzle body includes a first tip piece separating the at least one intermediate flow channel and the outer flow channel , wherein a downstream end of the first tip piece includes a first knife edge that tapers to a first radiused edge between the respective outlets of the at least one intermediate flow channel and the outer flow channel. a nozzle body having an inner flow channel , an outer flow channel , and at least one intermediate flow channel in between the inner and outer flow channels; a valve stem slidably received in the inner flow channel and moveable between an open position and one or more closed positions; wherein, in a first closed position, the valve stem blocks an outlet of the inner flow channel but does not block an outlet of the outer flow channel or an outlet of the at least one intermediate flow channel; wherein respective outlets of the inner channel, the outer channel and the at least one intermediate flow channels are immediately adjacent to one another, characterized in that the nozzle body includes a first tip piece separating the at least one intermediate flow channel and the outer flow channel , wherein a downstream end of the first tip piece includes a first knife edge that tapers to a first radiused edge between the respective outlets of the at least one intermediate flow channel and the outer flow channel.
An assembly comprising: a roll of cleaning fabric for cleaning printing cylinders of a printing system ; and a removable sealing bag ; said cleaning fabric comprising a liquid absorbable material soaked with a cleaning liquid, wherein said cleaning liquid comprises a polar additive containing either a glycol ether or a long-chain alcohol or both; wherein said polar additive is configured to make the cleaning liquid polar; and wherein said cleaning fabric is wrapped around a core to form said roll ; wherein the roll is inserted in said removable sealing bag which is configured to seal around said roll of cleaning fabric in order to prevent said cleaning liquid from evaporating before use; wherein said roll of cleaning fabric is vacuum packed in said removable sealing bag ; characterized in that said removable sealing bag is tubular and built up by a multi-layer plastic film, and in that said polar additive is a compound comprising 10-16 carbon atoms. a roll of cleaning fabric for cleaning printing cylinders of a printing system ; and a removable sealing bag ; said cleaning fabric comprising a liquid absorbable material soaked with a cleaning liquid, wherein said cleaning liquid comprises a polar additive containing either a glycol ether or a long-chain alcohol or both; wherein said polar additive is configured to make the cleaning liquid polar; and wherein said cleaning fabric is wrapped around a core to form said roll ; wherein the roll is inserted in said removable sealing bag which is configured to seal around said roll of cleaning fabric in order to prevent said cleaning liquid from evaporating before use; wherein said roll of cleaning fabric is vacuum packed in said removable sealing bag ; characterized in that said removable sealing bag is tubular and built up by a multi-layer plastic film, and in that said polar additive is a compound comprising 10-16 carbon atoms.