mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing and performing a laundry washing cycle by means of a washing machine , in particular a domestic washing machine, comprising the steps of: - providing a washing machine , - arranging the laundry to be washed in the form of a bulk pile at the washing machine , characterized by : - acquiring a digital color image of the bulk laundry pile and of at least one part of the washing machine , - determining a volume (Vb) of the laundry pile and/or a weight (Pb) of the laundry pile as a function of characteristics of the digital color image , - determining a weighed presence of predetermined color categories in the laundry pile as a function of characteristics of the digital color image , - determining washing parameters depending on the weighed presence of color categories in the determined laundry pile and depending on the calculated weight (Pb) and/or volume (Vb) of the laundry pile , - generating a washing preparation notification, which can be consulted by the user, said washing preparation notification containing at least one washing instruction, based on said determined washing parameters and which is executable by the washing machine , as well as one or more from: - a request for confirmation, - auxiliary washing preparation advices in addition to the washing instruction which is executable by the washing machine . - providing a washing machine , - arranging the laundry to be washed in the form of a bulk pile at the washing machine , - acquiring a digital color image of the bulk laundry pile and of at least one part of the washing machine , - determining a volume (Vb) of the laundry pile and/or a weight (Pb) of the laundry pile as a function of characteristics of the digital color image , - determining a weighed presence of predetermined color categories in the laundry pile as a function of characteristics of the digital color image , - determining washing parameters depending on the weighed presence of color categories in the determined laundry pile and depending on the calculated weight (Pb) and/or volume (Vb) of the laundry pile , - generating a washing preparation notification, which can be consulted by the user, said washing preparation notification containing at least one washing instruction, based on said determined washing parameters and which is executable by the washing machine , as well as one or more from: - a request for confirmation, - auxiliary washing preparation advices in addition to the washing instruction which is executable by the washing machine . - a request for confirmation, - auxiliary washing preparation advices in addition to the washing instruction which is executable by the washing machine .
An electronic device comprising: a housing ; a display stack comprising: an electronic display mounted in the housing and viewable from a front side of the electronic device ; a first color changing layer disposed between the electronic display and the front side of the electronic device ; and an optical shuttering layer substantially parallel to the front side and positioned between the first color changing layer and at least a portion of the electronic display ; a first driver for controlling a transition of the optical shuttering layer between a transparent clear state and an opaque state; and a second driver for controlling a transition of the first color changing layer between a transparent clear state and a first saturated colored state. a housing ; a display stack comprising: an electronic display mounted in the housing and viewable from a front side of the electronic device ; an electronic display mounted in the housing and viewable from a front side of the electronic device ; a first color changing layer disposed between the electronic display and the front side of the electronic device ; and an optical shuttering layer substantially parallel to the front side and positioned between the first color changing layer and at least a portion of the electronic display ; a first driver for controlling a transition of the optical shuttering layer between a transparent clear state and an opaque state; and a second driver for controlling a transition of the first color changing layer between a transparent clear state and a first saturated colored state.
A resource scheduling method for a logical channel, comprising: after an uplink grant resource is obtained, selecting (S103) a logical channel from two logical channels mapped to a same Packet Data Convergence Protocol, PDCP, entity to participate in uplink grant resource scheduling for a present transmission, wherein the two logical channels carry an original PDCP Protocol Data Unit, PDU, and a duplicate PDCP PDU, respectively; wherein the method further comprises: determining (S101) the two logical channels mapped to the same PDCP entity; characterized by wherein the selecting the logical channel from the two logical channels to participate in the uplink grant resource scheduling for the present transmission specifically comprises: maintaining variables of scheduling times for the two logical channels respectively, wherein the variables of scheduling times reflects the number of times a corresponding logical channel is scheduled; and selecting, according to the variables of scheduling times, a logical channel which is scheduled with fewer times from the two logical channels to participate in the uplink grant resource scheduling for the present transmission. after an uplink grant resource is obtained, selecting (S103) a logical channel from two logical channels mapped to a same Packet Data Convergence Protocol, PDCP, entity to participate in uplink grant resource scheduling for a present transmission, wherein the two logical channels carry an original PDCP Protocol Data Unit, PDU, and a duplicate PDCP PDU, respectively; wherein the method further comprises: determining (S101) the two logical channels mapped to the same PDCP entity; characterized by wherein the selecting the logical channel from the two logical channels to participate in the uplink grant resource scheduling for the present transmission specifically comprises: maintaining variables of scheduling times for the two logical channels respectively, wherein the variables of scheduling times reflects the number of times a corresponding logical channel is scheduled; and selecting, according to the variables of scheduling times, a logical channel which is scheduled with fewer times from the two logical channels to participate in the uplink grant resource scheduling for the present transmission. maintaining variables of scheduling times for the two logical channels respectively, wherein the variables of scheduling times reflects the number of times a corresponding logical channel is scheduled; and selecting, according to the variables of scheduling times, a logical channel which is scheduled with fewer times from the two logical channels to participate in the uplink grant resource scheduling for the present transmission.
A remote operation terminal for remotely operating a work machine (CR) driven via a PTO device in a vehicle , the remote operation terminal comprising: - a remote operation section that includes an operation input section for inputting an operation instruction to the work machine (CR), a control section configured to generate an operation signal based on the operation instruction input from the operation input section , and an operation signal transmission section configured to transmit the operation signal to the work machine (CR); and - a transmission device configured to transmit a wireless signal at a frequency different from a frequency of the operation signal, characterized in that the transmission device is configured to transmit the wireless signal when the remote operation section is in a power OFF state, and not to transmit the wireless signal when the remote operation section is in a power ON state. - a remote operation section that includes an operation input section for inputting an operation instruction to the work machine (CR), a control section configured to generate an operation signal based on the operation instruction input from the operation input section , and an operation signal transmission section configured to transmit the operation signal to the work machine (CR); and - a transmission device configured to transmit a wireless signal at a frequency different from a frequency of the operation signal, characterized in that the transmission device is configured to transmit the wireless signal when the remote operation section is in a power OFF state, and not to transmit the wireless signal when the remote operation section is in a power ON state.
A laser scanning system for scanning a laser beam over the surface of a substrate , comprising: the substrate ; a laser source for producing a laser beam; a substrate table for supporting the substrate ; a scanning module containing programmable optics for selectively redirecting the laser beam; and a control module for controlling the scanning module to scan the laser beam over the surface of the substrate , wherein: the substrate comprises a carrier layer attached to a product layer via a laser release layer , and the laser beam is configured such that irradiation of the material of the laser release layer by the laser beam is effective to cause release of the product layer from the carrier layer in the region of the irradiation, characterized in that : the laser scanning system further comprises a redirecting unit at a position in a beam path of the laser beam between the scanning module and the substrate , the redirecting unit being configured to control the direction of incidence of the laser beam onto the substrate , wherein: the control module and redirecting unit are configured to scan the laser beam over a predetermined region on the substrate in such a way that each portion of the region is exposed by the laser beam from a plurality of different directions of incidence. the substrate ; a laser source for producing a laser beam; a substrate table for supporting the substrate ; a scanning module containing programmable optics for selectively redirecting the laser beam; and a control module for controlling the scanning module to scan the laser beam over the surface of the substrate , wherein: the substrate comprises a carrier layer attached to a product layer via a laser release layer , and the laser beam is configured such that irradiation of the material of the laser release layer by the laser beam is effective to cause release of the product layer from the carrier layer in the region of the irradiation, characterized in that : the laser scanning system further comprises a redirecting unit at a position in a beam path of the laser beam between the scanning module and the substrate , the redirecting unit being configured to control the direction of incidence of the laser beam onto the substrate , wherein: the control module and redirecting unit are configured to scan the laser beam over a predetermined region on the substrate in such a way that each portion of the region is exposed by the laser beam from a plurality of different directions of incidence.
A legs apron (10; 10A; 10B) for a motor vehicle , comprising: - a middle portion having a longitudinal axis (P1); - a first side portion and a second side portion , which extend laterally on opposite sides with respect to such a middle portion ; - wherein the first side portion and the second side portion define a first and a second folding portion (X1, X2), respectively, which extend according to a prevalent direction which is substantially parallel to said longitudinal axis; wherein the legs apron is suitable for taking on an operating configuration wherein the first and the second side portion are folded along the first and the second folding portion (X1, X2), respectively, so as to both extend over a respective side transversely with respect to the middle portion ; said apron comprises means for protecting against impacts which are adapted to protect the lower limbs of the driver (C1) against impacts, the protective means comprising at least a first and a second protective bar coupled to the first and to the second side portion , respectively; wherein said first and second protective bar each extend according to a respective prevalent direction of extension (Q1, Q2) which is parallel or substantially parallel to said longitudinal axis (P1); and wherein said first and second protective bar are arranged in position proximal to the first and to the second folding portion (X1, X2), respectively, so as to protect at least the femoral portions of the legs of the driver (C1) of the motor vehicle in the event of an impact or fall; and said legs apron being characterized in that said first and second protective bar are made from a material deformable in compression according to a direction substantially orthogonal to said prevalent direction of extension (Q1, Q2) - a middle portion having a longitudinal axis (P1); - a first side portion and a second side portion , which extend laterally on opposite sides with respect to such a middle portion ; - wherein the first side portion and the second side portion define a first and a second folding portion (X1, X2), respectively, which extend according to a prevalent direction which is substantially parallel to said longitudinal axis;
Electronic device with a functional body and a contact , which is electrically connected to a first surface of the functional body , the contact having a peripheral zone and a central zone , and the functional body being configured in such a way that the electrical resistance of the functional body between the first surface and a second surface of the functional body remote from the first surface is greater in a first functional body portion , which, when viewed in plan view onto the electronic device , overlaps with the peripheral zone , than in a second functional body portion , which, when viewed in plan view onto the electronic device , overlaps with the central zone of the contact , characterized in that the functional body is configured in such a way that the first functional body portion has a greater resistivity compared with the second functional body portion .
A solar cell comprising: a semiconductor substrate of a first conductivity type wherein one of the main surfaces is a light-receiving surface, the other main surface is a backside, and the backside of the semiconductor substrate has a region of the first conductivity type and a region of a second conductivity type, being an opposite conductivity type to the first conductivity type; a first finger electrode including: a first contact portion joined to the region of the first conductivity type; and a first current collector , at least a part of the first current collector being formed on the first contact portion; a second finger electrode including: a second contact portion joined to the region of the second conductivity type; and a second current collector , at least a part of the second current collector being formed on the second contact portion; a first bus bar electrode being in electrical contact with the first current collector; a second bus bar electrode being in electrical contact with the second current collector; and an insulator film disposed at least in the whole area just under the first bus bar electrode and the second bus bar electrode; wherein the electrical contact between the first current collector and the first bus bar electrode as well as the electrical contact between the second current collector and the second bus bar electrode are made on the insulator film; and the first contact portion and the second contact portion are each in a continuous line shape at least just under the insulator film. a semiconductor substrate of a first conductivity type wherein one of the main surfaces is a light-receiving surface, the other main surface is a backside, and the backside of the semiconductor substrate has a region of the first conductivity type and a region of a second conductivity type, being an opposite conductivity type to the first conductivity type; a first finger electrode including: a first contact portion joined to the region of the first conductivity type; and a first current collector , at least a part of the first current collector being formed on the first contact portion; a second finger electrode including: a second contact portion joined to the region of the second conductivity type; and a second current collector , at least a part of the second current collector being formed on the second contact portion; a first bus bar electrode being in electrical contact with the first current collector; a second bus bar electrode being in electrical contact with the second current collector; and an insulator film disposed at least in the whole area just under the first bus bar electrode and the second bus bar electrode; wherein the electrical contact between the first current collector and the first bus bar electrode as well as the electrical contact between the second current collector and the second bus bar electrode are made on the insulator film; and the first contact portion and the second contact portion are each in a continuous line shape at least just under the insulator film.
A system for preparing a target cell population for a therapeutic cellular treatment comprising: a) a separation unit for effecting separation of whole blood into two or more components including a target cell population; b) a treatment unit for treating said target cell population; c) a disposable fluid circuit comprising a patient access device, tubing defining a flow path between said patient access device and a separation chamber , a treatment chamber and one or more containers for collecting said target cell population; d) one or more pumps and one or more valves adapted to interact with said flow paths of said fluid circuit and effect flow of fluid through said flow paths; e) a detector configured to monitor the separation of whole blood into said two or more components; and f) a controller configured to i. receive signals from said detector; ii. initiate delivery of a priming solution to said fluid circuit wherein said priming solution is either saline or blood; iii. effect the operation of said one more pumps to combine at least a portion of saline that was used to prime said fluid circuit or where said priming solution is blood, a solution different from the priming fluid with said collected target cell population to arrive at a predetermined hematocrit of the target cell population for said therapeutic cellular treatment. a) a separation unit for effecting separation of whole blood into two or more components including a target cell population; b) a treatment unit for treating said target cell population; c) a disposable fluid circuit comprising a patient access device, tubing defining a flow path between said patient access device and a separation chamber , a treatment chamber and one or more containers for collecting said target cell population; d) one or more pumps and one or more valves adapted to interact with said flow paths of said fluid circuit and effect flow of fluid through said flow paths; e) a detector configured to monitor the separation of whole blood into said two or more components; and f) a controller configured to i. receive signals from said detector; ii. initiate delivery of a priming solution to said fluid circuit wherein said priming solution is either saline or blood; iii. effect the operation of said one more pumps to combine at least a portion of saline that was used to prime said fluid circuit or where said priming solution is blood, a solution different from the priming fluid with said collected target cell population to arrive at a predetermined hematocrit of the target cell population for said therapeutic cellular treatment. i. receive signals from said detector; ii. initiate delivery of a priming solution to said fluid circuit wherein said priming solution is either saline or blood; iii. effect the operation of said one more pumps to combine at least a portion of saline that was used to prime said fluid circuit or where said priming solution is blood, a solution different from the priming fluid with said collected target cell population to arrive at a predetermined hematocrit of the target cell population for said therapeutic cellular treatment.
Method for operating laundry treatment apparatus, in particular a heat pump dryer or washing machine having dryer function, wherein the apparatus comprises a heat pump system and a laundry treatment chamber for treating laundry using process air (A), and wherein the heat pump system comprises: a first heat exchanger for heating a refrigerant fluid (R), a second heat exchanger for cooling the refrigerant fluid (R), an expansion device , a refrigerant loop , in which the refrigerant fluid is circulated through the first and second heat exchangers and the expansion device, and a compressor for circulating the refrigerant fluid (R) through the refrigerant loop , the method comprising detecting at least one first temperature signal (Tx), characterized by in dependency of the at least one detected first temperature signal (Tx), selecting at least one predetermined temperature threshold value (T_off1..3, T_on1..3) for switching the compressor ON and/or OFF, such as to prevent an overheating of the compressor . a first heat exchanger for heating a refrigerant fluid (R), a second heat exchanger for cooling the refrigerant fluid (R), an expansion device , a refrigerant loop , in which the refrigerant fluid is circulated through the first and second heat exchangers and the expansion device, and a compressor for circulating the refrigerant fluid (R) through the refrigerant loop , the method comprising detecting at least one first temperature signal (Tx), characterized by in dependency of the at least one detected first temperature signal (Tx), selecting at least one predetermined temperature threshold value (T_off1..3, T_on1..3) for switching the compressor ON and/or OFF, such as to prevent an overheating of the compressor .
Catalyst material based on TiO 2 in particle form having a content of metal oxide selected from among vanadium oxide and tungsten oxide and/or precursors thereof, wherein the average particle size D 50 after dispersing is D 50 < 1.0 μm, the mesopore size is 3-50 nm and the mesopore volume of the particles is greater than 0.260 cm 3 /g.